Automated food processing system and method

ABSTRACT

An automated food processing system and method is provided that allows food to be dispensed, fried and packaged in a suitable container, which may be an individual portion-sized container. In one embodiment, the system includes separate automated modules for dispensing, frying and packaging the food. In one embodiment, an automated dispensing device dispenser a predetermined portion of food from a bulk storage container or food dispensing magazine. Food is dispensed from the automated dispensing device to an automated fry device that can include at least one circular fry wheel having a plurality of food containing compartments. After the food is fried it is dispensed from the fry device to an automated packaging device. The automated packaging device dispenses food to a container that may be an individual portion-sized container that is retrieved, erected and held into position for filling by an automated container handling system. After a food container is filled, a conveyor system transports the filled container to a suitable pick-up location.

CROSS-REFERENCE TO RELATED APPLICATIONS

This application is a continuation of U.S. application Ser. No.10/127,390, filed Apr. 22, 2002, the disclosure of which is herebyincorporated by reference.

FIELD OF THE INVENTION

The invention relates to automated food processing. More particularly,the invention relates to automated food dispensing, frying and packaginginto individual portion-sized containers such as at a quick-service typerestaurant.

BACKGROUND OF THE INVENTION

In restaurants, especially quick service (fast food) restaurants, fast,consistent, efficient and safe food preparation is essential for asuccessful operation. The quality of the prepared food depends in largepart on the consistency of food preparation. The food must be cookedunder correct conditions for the proper time.

Consistency in food preparation can vary as a result of many factors.For example, people engaged in food preparation often must performmultiple tasks at frequencies that vary with time because of constantlyvarying customer demand throughout the day. For example, lunchtime anddinnertime may be extremely busy while other periods may be relativelyslow. The product mix can vary from hour to hour and day to day. As aresult, the consistency and quality of food may vary. Difficulties inproper scheduling of food production during peak and non-peak periodscan cause customer delays and/or stale, wasted or unusable food.

Food preparation can be labor intensive, and thus, the labor cost can bea large portion of the total cost of the prepared food. An additionalproblem is that in sparsely populated and other areas where quickservice restaurants are located, such as along interstate highways, forexample, recruiting sufficient numbers of suitable employees isdifficult.

Quick service restaurants must be able to effectively meet a variablecustomer demand that is time dependent and not subject to preciseprediction. As a result, stores relying totally on human operators willat times be overstaffed and at other times be under-staffed. Also,problems and potential problems can exist in restaurants where peopledirectly prepare food. Health and safety concerns can also be presentwhere food is prepared directly by people. By reducing or minimizinghuman contact with food and food cooking equipment, health and safetyconcerns can also be reduced or minimized. For example, in the frying offoods, some type of hot fluid, such as cooking oil or shortening must beutilized. The cooking temperatures required can present a concern forhealth and safety.

Although quick service restaurants have existed for many years and nownumber in the tens of thousands, such establishments utilize manuallabor to prepare and process food. While there have been variousimprovements in commercial equipment used for cooking food in quickservice restaurants, such restaurants are believed to be substantiallyall manually operated and relatively labor intensive.

Accordingly, a need exists for an automated, commercially suitable fooddispensing, cooking and packaging device, system and method for friedfoods that can be operated with a minimum of human intervention, controland maintenance. More particularly, a need exists for an automateddevice, system and method that is capable of, without human labor,frying various food products in desired quantities, such as Frenchfries, seasoning the cooked food and packaging the cooked food inindividual portion-sized containers.

SUMMARY OF THE INVENTION

In accordance with the present invention, an automated food processingsystem and method is provided. The automated food processing system andmethod in accordance with the invention allows food to be dispensed,fried and packaged in a suitable container or alternatively dispensed toa food holding area for subsequent processing by a human operator.

In accordance with one aspect of the present invention, an automatedmodule system for dispensing, frying and packaging food into individualportion-sized containers is provided. In one embodiment, any suitableautomated dispensing device can be used. In another embodiment, thesystem includes an automated dispensing module capable of dispensing adesired quantity of food to be fried, an automated fry module adjacentthe dispensing module to receive and fry the quantity of food dispensedfrom the dispensing module and to produce and dispense a quantity offried food and an automated packaging module adjacent the fry module toreceive and package the fried food from the fry module into anindividual portion-sized container.

Advantageously, in one embodiment, the three modules are independentfrom each other and can be operated independently. Plus, in oneembodiment, any one of the modules can be deactivated and a humanoperator can manually perform the function of the deactivated modulewith manually operated equipment.

In accordance with another aspect of the invention, optionally anautomated seasoning device is present to apply seasoning to the food.

Typically, the automated dispensing module in accordance with theinvention in one embodiment is capable of dispensing one or more ofuncooked or unheated French fries, chicken nuggets, hash browns, chickenpatties and fish filets or similar types of food items to be cookedand/or heated.

In accordance with another aspect of the invention, the automateddispensing module includes a freezer, a storage container located in thefreezer for containing food to be dispensed, structure for dispensing apredetermined quantity of food from the storage container into asecondary or dump container, with the structure for dispensing and thesecondary or dump container being located in the freezer, and structurefor dispensing the quantity of food from the secondary or dump containerto a location outside of the freezer.

In accordance with another aspect of the present invention, the frymodule of the automated modular system includes a fry vat for containingand heating cooking oil, at least one circular fry wheel having at leasta generally circular perimeter in a plurality of compartments, eachcompartment having an opening towards the perimeter, the fry wheelmounted for rotational movement relative to the radial axis of the frywheel, which radial axis is disposed above the normal operating level ofthe frying oil or the cooking oil in the fry vat. A drive mechanism isprovided for rotating the fry wheel. In one aspect of the invention, anysuitable type of automated fry device can be utilized.

In accordance with another aspect of the present invention, a controlsystem is provided for causing the drive mechanism to periodicallyrotate the fry wheel back and forth through a relatively small amount ofangular rotation (such as about 2-10°, for example) to simulate shakingof a fry basket. Such control can be accomplished electronically bydevices known to those skilled in the art.

In another embodiment, food is delivered from the fry module to a cookedfood holding device, which can comprise a heated holding bin or bins.

In accordance with still another aspect of the present invention, theautomated packaging module includes a rotatable food dispensing memberhaving an inlet location to receive a quantity of cooked food at adischarge location to discharge cooked food, the packaging module alsoincluding a food dispensing chute position to receive cooked food fromthe discharge location of the rotatable food dispenser, the fooddispensing chute having a discharge location.

In accordance with another embodiment of the invention, the automatedmodular system further includes a carton holding device for holding theindividual portion-sized carton or container in position to receive foodfrom the discharge location of the dispensing chute. The packagingmodule may further include a rotatable food collecting member disposedto collect food from the discharge location of a dispensing chute thatis not deposited into the individual portion-sized food container. Theso collected food may be subsequently deposited into the food dispensingchute for delivery to a container or alternatively to the rotatable fooddispensing member or to a waste receptacle or chute.

In accordance with another aspect of the invention, the automatedpackaging device includes a conveyor system for transporting filledindividual portion-sized food containers from adjacent the fillinglocation to a filled food container holding area, for subsequent pick-upby a human operator, for example. In one embodiment, any suitableautomated packaging device can be utilized.

In accordance with another aspect of the present invention, an automatedfood carton-retrieving device is provided for retrieving and graspingindividual portion-sized food containers. The automated retrievingdevice comprises a moveable member for selectively grasping andreleasing the food container. In one embodiment, the retrieving deviceis capable of grasping and releasing an unerected food container on oneside and the device further includes a second device for selectivelygrasping the unerected food container on the other side with structurefor moving the retrieving device and the second device relatively apartwhen grasping the sides of the container to erect or partially erect thecontainer.

In another embodiment, an automated urging structure is provided forurging the container bottom upwardly relative to the sides of thecontainer when the sides of the container are moved relatively apart.

In accordance with another aspect of the invention, the automatedmodular system includes an electronic control system that receivescurrent customer order information and the electronic control systemcauses the selection of a container from a plurality of differentcontainer sizes and further causes filling of food with the size of foodcontainer in response to a customer order. In one aspect, the electroniccontrol system can receive customer order information and controls thedispensing rate of food dispensed from the food dispensing module to thefry module which dispensing automatically determines the amount of foodbeing fried without further intervention by the electronic control. Inone aspect, the control system can include a separate control system foreach of the dispensing, fry and packaging systems or modules, each ofwhich interface with a central control system, which in turn optionallyinterfaces with a POS (point-of-sale) system.

In accordance with another aspect of the invention, the automatedmodular system is suitable for dispensing, frying and packaging Frenchfries into individual portion-sized containers.

In accordance with another aspect of the present invention, an automatedmethod of dispensing, frying and packaging food into individualportion-sized containers is provided that includes dispensing a desiredquantity portion of food to be fried from an automated dispensing moduleto an automated fry module and thereafter frying the portion of fooddispensed from the dispensing module in the automated fry moduleadjacent the dispensing module to produce a quantity of fried food.Thereafter, the quantity of fried food is dispensed from the fry moduleto a packaging module where the fried food dispensed from the fry moduleis packaged into individual portion-sized containers with an automatedpackaging module.

In another aspect of the invention, the automated method furthercomprises seasoning the quantity of fried food with a seasoning device.

In accordance with another aspect of the invention, the dispensingincludes dispensing a predetermined quantity of food from the storagecontainer into a secondary container located in a freezer and dispensingthe quantity of food from the secondary container to a location outsideof the freezer.

In accordance with another aspect of the method of the presentinvention, the frying comprises a rotating fry wheel having at least agenerally circular perimeter and a plurality of compartments, eachcompartment having an opening towards the perimeter, the food beingcontained in at least one of the compartments during the frying, the frywheel being mounted for rotational movement relative to the radial axisof the fry wheel in a fry vat with the radial axis being disposed abovea normal operating level of the cooking oil in the fry vat. Inaccordance with this aspect of the invention, the automated methodfurther includes containing a drive mechanism to periodically rotate thefry wheel back and forth through a relatively small amount of angularrotation to simulate shaking of a fry basket during frying.

In accordance with another aspect of the invention, the packagingincludes rotating a rotatable food dispensing member having an inletlocation to receive a quantity of cooked food in a discharge location todischarge cooked food, the food dispensing member being rotated todispense food into a food dispensing chute position to receive cookedfood from the discharge location of the rotatable food dispenser andthereafter dispensing said food from the dispensing chute to a containerto be filled.

In accordance with another aspect of the invention, the method furtherincludes holding an individual portion-sized carton or containerpositioned to receive food from the dispensing chute with an automatedcarton holding device.

In accordance with still another aspect of the invention, the methodfurther includes collecting food dispensed from the discharge locationof the dispensing chute that is not deposited into the individualportion-sized food container with a rotatable food collecting memberdisposed to collect such not deposited food.

In accordance with another aspect of the method, the method includeselectronically coordinating the operation of the three modules ordevices within an electronic control system. In one embodiment, themethod further includes electronically receiving current customer orderinformation by the electronic control system which causes selection of acontainer from a plurality of different sized containers and filling thecontainer with food of the ordered size of food container in response toa customer order by the packaging module. In accordance with anotheraspect of the method, customer order information is electronicallyreceived and the dispensing rate of food dispensed from the fooddispensing module to the fry module is controlled, which dispensingautomatically determines the amount food being fried without furtherintervention by the electronic control system.

In accordance with another aspect of the present invention, an automateddispensing device for dispensing a quantity of food to be subsequentlycooked is provided. In one embodiment, the automated dispensing deviceincludes a freezer or refrigerated compartment, a storage containerlocated in the freezer for containing food to be dispensed, structurefor dispensing a predetermined quantity of food from the storagecontainer into a secondary or dump container, the structure fordispensing the predetermined quantity of food being located in thefreezer, and structure is provided for dispensing the quantity of foodfrom the secondary or dump container in the freezer to a locationoutside of the freezer.

In one embodiment, the structure for dispensing a predetermined quantityof food includes a vibratory conveyor typically located in the freezerbelow the storage container. The structure for dispensing may furtherinclude a device for determining or sensing the quantity of food thathas been deposited in the secondary container and structure is providedfor terminating the operation of the structure for dispensing when apredetermined quantity of food is sensed in the secondary container.

In accordance with another aspect of the present invention, theautomated dispensing device includes structure for dispensing apredetermined quantity of food that comprises a food magazine capable ofdispensing individual pieces of food on a piece by piece basis. Inaccordance with a more specific aspect of this embodiment, the magazinecomprises dual rotatable spiral flights with the spiral flights having aspacing therebetween to allow placement of a food item, such as achicken patty, for example, to be supported by both spiral flights.

In accordance with another aspect of the invention, the magazinedispenser is suspended from a slide mechanism permitting removal of themagazine from the freezer or refrigerated compartment. A plurality ofthe magazines can be located on a single slide mechanism. An array ofthe magazines may be located in the freezer, such as a 3×5 array or a3×4 array, for example.

In one embodiment, a separate drive motor is associated with each fooddispensing magazine for selectively rotating spiral flights of amagazine dispenser for dispensing a desired number of the food items.The drive motor may also be located in the freezer.

In accordance with another aspect of the invention, an automated methodof dispensing a quantity of food to be cooked is provided. The methodincludes storing food items in a storage container located in thefreezer, dispensing food items from the storage container to a conveyor,conveying the food items on the conveyor to a secondary or dumpcontainer located in the freezer, monitoring the amount of food itemsdelivered to the secondary container, terminating delivery of the fooditems to the secondary container when a desired amount of food items aredetermined to be present in the secondary container as determined by themonitoring, and dispensing the food items from the secondary containerand out of the freezer by at least partially inverting the secondarycontainer. In accordance with another aspect of this embodiment, afreezer or refrigerated compartment is not utilized.

In accordance with another aspect of the present invention, a device forthe automated frying of foods is provided. The device in one embodimentincludes a fry vat for containing and heating cooking oil, at least onecircular fry wheel having at least a generally circular perimeter and aplurality of compartments with each compartment having an openingtowards the perimeter, the fry wheel mounted for rotational movementrelative to the radial axis of the fry wheel which radial axis isdisposed above the normal operating level of the frying oil in the fryvat. A drive mechanism is provided for rotating the fry wheel and acontrol system is included for causing the drive mechanism toperiodically rotate the fry wheel back and forth through a relativelysmall amount of rotation (such as about 2-10°, for example) to simulateshaking of a fry basket. Such control can be accomplished electronicallyby devices known to those skilled in the art.

In accordance with another aspect of the present invention, the smallamount of rotation is in the range of from about 20 to about 200. Theback and forth rotation in one direction may be of a larger angle oramount of rotation than of the rotation in the other direction.

In one embodiment, a control system is provided that causes periodicincremental rotation of the fry wheel in one direction to cause fooddeposited into one of the compartments to travel through the cooking oilin the fry vat over a period of time to fry the food and to move thecompartments out of the cooking oil for subsequent discharge of the foodfrom the compartment. In one embodiment, the periodic incrementalrotation is based on 360° divided by the number of compartments in thefry wheel.

In accordance with another aspect of the present invention, a controlsystem is provided for operating the drive mechanism to rotate the frywheel in one direction to cause food deposited into one of thecompartments to travel through the cooking oil in the fry vat over aperiod of time to fry the food and out of the cooking oil for subsequentdischarge of the food from the compartment, wherein the control systemadjusts the speed of rotation based on the level of cooking oil in thefry vat. In one embodiment, the control system causes incrementalperiodic rotation of the fry wheel and the control system adjusts theperiod of time between incremental rotations based on the level ofcooking oil sensed in the fry vat. The period of time betweenincremental rotations can also be based on the temperature of thecooking oil in the fry vat.

In accordance with another aspect of the invention, a curved baffle isprovided that is disposed in the fry vat adjacent the axial periphery ofthe portion of the fry wheel that is disposed in the cooking oil forpreventing food contained in one or more of the fry wheel compartmentsfrom falling out of the compartments.

In accordance with another aspect of the present invention, an automatedmethod of frying food in a fry vat having a heated cooking oil containedtherein is provided. The method includes placing food in a fry wheelcompartment, each of the compartments having an opening towards theperimeter of the fry wheel, rotating the fry wheel so that thecompartment containing the food travels submerged in the heated cookingoil and periodically rotating the fry wheel back and forth in arelatively small amount of rotation to simulate shaking of the frybasket while the food is submerged in the cooking oil. In accordancewith another aspect of the method of the present invention, the methodcomprises rotating the fry wheel in one direction to cause the fooddeposited into one of the compartments to travel through the cooking oilin the fry vat over a period of time to fry the food and to move thefood out of the cooking oil for subsequent discharge of the food fromthe compartment, wherein the speed of said rotating is related to thelevel of cooking oil in the fry vat. In accordance with this aspect ofthe present invention, the rotating may comprise incremental periodicrotation with the period of time between incremental periodic rotationsbeing based on the level of cooking oil sensed in the fry vat. Theperiod of time between incremental periodic rotations may also be basedon the temperature of the cooking oil in the fry vat.

In accordance with another aspect of the present invention, an automatedmethod of packaging cooked food, which may be food such as French fries,chicken nuggets and other types of food, in an individual portion-sizedcontainer is provided. The method includes delivering a quantity of acooked food to a rotatable dispensing member, rotating the dispensingmember to cause the food items to fall from one or more compartments ofthe dispensing member into a food dispensing chute and thereafterdispensing the food from the chute and depositing the food into theindividual portion-sized food container.

In accordance with one aspect, the method may further include weighingthe food in the chute before dispensing the food to the container.

In accordance with another aspect of the invention, the method includesapplying seasoning to the food and may further include applying theseasoning by using gravity to cause the seasoning to travel through anozzle and onto the food.

In accordance with another aspect of the invention, the method furtherincludes shaking the individual portion-sized food container after thedispensing. The shaking may be automated and can include back and forthmovement of the container through an arc as desired, and may be in agenerally vertical axis. The arc may be a generally circular arc and therotating back and forth may encompass an arc in the range of from about3° to about 20°. In addition, the container may be raised and loweredbefore, during or after the rotating to further simulate shaking or inconnection with further container handling.

In accordance with another aspect of the invention, when dispensing foodfrom the chute to the individual portion-sized container, some of thedispensed food is not deposited into the individual portion-sizedcontainer and the method further includes collecting the not depositedfood. Typically, the not deposited food will be collected in acollection device that returns the not deposited food to the chute forsubsequent dispensing. In one embodiment, the collection member isrotatable and can be rotated to deposit the collected food to the chute.This helps to ensure that the not deposited food is subsequentlydeposited into a container on a first-in, first-out or a generallyfirst-in, first-out basis.

In accordance with another aspect of the present invention, an automatedmethod of packaging food, including food such as French fries, in anindividual portion-sized container is provided that includes deliveringa quantity of food to a food dispensing chute, selecting and holdingwith an automated device an individual portion-sized container of adesired size from a plurality of different sizes of individualportion-sized containers that can be selected and held by the automateddevice. The selected individual portion-sized container is moved by theautomated device to a location for receiving food from the dispensingchute and food is dispensed from the chute and into the container. Themethod may further include depositing the filled food container onto aconveyor by operation of the automated device and transporting thedeposited container by the conveyor to a human operator food pickuplocation.

In accordance with another aspect of the foregoing method, theindividual portion-sized food container is unerected and the methodfurther includes after the selecting, erecting the selected individualportion-sized food container by the automated device. In one embodiment,the automated device includes a partial vacuum suction device forholding the individual portion-sized food container and the holdingincludes applying a partial vacuum through a suction device to the foodcontainer. The food container can be released by reducing or eliminatingthe vacuum applied by the suction device to the food containersufficiently to cause the food container to be disengaged from theautomated device.

In accordance with another embodiment of the method, the filled foodcontainer is placed in an upright position on a transportable member orcontainer-receiving receptacle which in one embodiment contains a singlefood container and is maintained in an upright position on thetransportable member by cooperation of the recessed volume of thetransportable member and the food container.

In accordance with another aspect of the invention, the transporting isperformed by a magnetic conveyor.

In accordance with still another aspect of the invention, an automateddevice for packaging cooked food into a desired container, which may bean individual portion-sized food container is provided. The deviceincludes a rotatable food dispensing member having an inlet location toreceive a quantity of the cooked food and a discharge location todischarge the cooked food. A food dispensing chute is positioned toreceive the cooked food from the discharge location of the rotatablefood dispenser and the dispensing chute has a discharge location. In oneembodiment, the dispensing chute has a food holding area for holding aquantity of the cooked food deposited therein. A suitable weighingdevice can be associated with the dispensing chute to weigh the foodthat is contained in the chute or in the holding area of the chute. Inone embodiment, the weighing device is a load cell.

In accordance with another aspect of the invention, the automated deviceincludes a food carton or container holding device for holding the foodcarton in position to receive food from the discharge location of thedispensing chute. The carton holding device can include an axiallyrotatable generally vertically extending elongated first member and asecond member that extends from the elongated member, the second memberhaving a gripping member for gripping a food container, which may be anindividual portion-sized food container. In one embodiment, the grippingmember comprises a suction cup. A vacuum source may be supplied to thesuction cup to create at least a partial vacuum, allowing the containerto be held. In one embodiment, the carton holding device is capable ofmoving the food container through an arc of about or of at least about180° and in which the carton holding device is capable of moving thefood container up and down.

In accordance with another aspect of the present invention, theautomated device comprises a conveyor system for transporting filledindividual portion-sized food containers from adjacent the fillinglocation to a filled container holding area. The conveyor system maycomprise in one embodiment a continuous loop raceway and a plurality ofdiscrete moveable food container receptacles that are moveable along theraceway. The conveyor system may include a continuous moveable loophaving at least one magnetic element capable of magnetically attractingone of the moveable receptacles at a time for causing movement of thereceptacle corresponding to movement of the magnetic element. Aplurality of the magnetic elements may be spaced apart along themoveable loop.

In one embodiment, structure is provided for preventing movement of thediscrete receptacles when the structure for moving the discretereceptacles along the raceway is activated. The structure for preventingmovement can be a barrier that is disposed across the raceway. In oneembodiment, the barrier is selectively moveable and in anotherembodiment the barrier is fixed. In one embodiment, the barrier preventsmovement of the receptacles only for a receptacle that has a food cartonor container disposed thereon. In this embodiment, the barrier may belocated at a height that is above the top of the receptacles located onthe conveyor system adjacent the barrier.

In accordance with another aspect of the invention, an automated deviceis provided to retrieve and grasp a food container, which may be anindividual portion-sized food or French fry container or carton. Theautomated retrieving device includes a member for selectively graspingand releasing the food container and for moving the moveable memberhorizontally and linearly.

In accordance with another aspect of the invention, a magazine isprovided for holding a plurality of food containers in an unerectedstate.

In accordance with another aspect of the invention, the automated deviceincludes a retrieving device that is capable of grasping and releasingan unerected food container on one side and further includes a seconddevice for selectively grasping the unerected food container on theother side. A structure for moving the retrieving device and the seconddevice relatively apart when grasping the sides of the container isprovided. The automated device may further include an automated urgingmeans for urging the container bottom upwardly relative to the sides ofthe container when the retrieving device and the second device are movedrelatively apart when grasping the container.

In accordance with another aspect of the invention, the food dispensingmember is a rotatable wheel having an open central area and an outer atleast generally circular rim. The rotatable wheel has a plurality ofopen compartments spaced apart about the circular rim that extendinwardly from the circular rim and open interiorly of the circular rim.A baffle may be provided to prevent food contained in the one or more ofthe open compartments from falling out of the compartments when thewheel is rotated until the compartment is in position over the fooddispensing chute. The baffle may be curved to follow the curvature ofthe inner part of the wheel and may also be perforated. The automateddevice may further include a rotatable food collecting member that isdisposed to collect food dispensed from the discharge location of thedispensing chute which food is not deposited into a container held inposition at the discharge location. Typically, the collection memberwill have a discharge location to discharge collected food. In oneembodiment, the discharge location is the food dispensing chute. Thecollecting member may be a rotatable food collecting wheel having anopen central area and an outer circular rim having a plurality of opencompartments spaced apart about the circular rim that extend inwardlyfrom the circular rim and that are open towards the rim interior. Therotatable food dispensing member and the rotatable food collectingmember can be rotatable in one direction to discharge food at adischarge location and into a food dispensing chute and can be rotatablein an opposite direction to discharge the food at a second dischargelocation which may be to a waste chute. The discharge to the waste chutefeature can be activated, for example, when the food is held in thedispensing device for too long a period of time.

The packaging device may also include an automated seasoning device fordepositing a predetermined quantity of seasoning to food contained inthe packaging device.

In accordance with another aspect of the invention, the device forapplying seasoning includes a seasoning delivery tube having an inletand a discharge location. A seasoning delivery head is positioned todeliver seasoning to the food to be seasoned with the head incommunication with the outlet of the delivery tube and located below theinlet of the delivery tube. Structure is provided for depositing apredetermined quantity of seasoning into the inlet of the delivery tubeso that the quantity of seasoning falls by gravity through the deliverytube and into and through the seasoning head and onto the food to beseasoned. Typically, the structure for depositing the predeterminedquantity of seasoning will receive seasoning from a bulk hopper bygravity feed. The quantity of seasoning to be dispensed can bedetermined volumetrically, for example.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a perspective view of an automated food processing system inaccordance with the invention;

FIG. 2 is a perspective view of an alternate embodiment of a foodprocessing system in accordance with the present invention;

FIG. 3 is a schematic view, partly in section, of the food processingsystem of FIG. 1;

FIG. 4 is a side elevation view of a portion of a bulk food dispensingdevice in accordance with the present invention;

FIG. 4A is a side elevation view, partly in section, of an alternativeembodiment for a portion of the dispensing device illustrated in FIG. 4;

FIG. 5 is a top plan view of a portion of the bulk food dispensingdevice in accordance with the present invention;

FIG. 6 is a side elevation view, partly in section, of a bulk fooddispensing device in accordance with the present invention and alsoillustrating a portion of a device for frying food in accordance withthe present invention;

FIG. 7 is a perspective view of a magazine-type dispenser that can formpart of the food dispensing device of the present invention;

FIG. 8 is a partial side elevation view of the magazine dispenser ofFIG. 7;

FIG. 9 is a perspective view of a magazine-type dispenser array that canbe utilized in the dispenser of the present invention;

FIG. 10 is a fragmentary view of the device of FIG. 9;

FIG. 11 is a top plan view of a food frying device in accordance withthe present invention;

FIG. 12 is a front elevation view of the food frying device of FIG. 11;

FIG. 13 is a partial fragment sectional view along line 13-13 of FIG.11;

FIG. 14 is a fragmentary sectional view of a portion of the food fryingdevice of FIG. 11;

FIG. 15 is a sectional view along line 15-15 of FIG. 14;

FIG. 16 is a perspective view of a drive mechanism for the food fryingdevice of FIG. 11;

FIG. 17 is a fry basket for use in the frying device of FIG. 11;

FIG. 18 is a fragmentary sectional view along line 18-18 of FIG. 17;

FIG. 19 is an enlarged, fragmentary elevation sectional view of aportion of FIG. 13;

FIG. 20 is an alternate view along line 13-13 of FIG. 11;

FIG. 21 is a sectional view along line 21-21 of FIG. 20;

FIG. 22 is an enlarged fragmentary view of a portion of FIG. 21;

FIG. 23 is an alternate embodiment of a fry wheel in accordance with thepresent invention;

FIG. 24 is another alternate embodiment fry wheel in accordance with thepresent invention;

FIG. 25 is a front perspective view of a packaging device in accordancewith the invention;

FIG. 26 is a rear perspective view of the device of FIG. 25;

FIG. 27 is a top plan view of the device of FIG. 25;

FIG. 28 is a side elevation view, partially in section and partiallybroken away of the packaging device of FIG. 25;

FIG. 29 is a front elevation view of the device of FIG. 25;

FIG. 30 is a front perspective view of a portion of an automatedcontainer handling system in accordance with the invention;

FIG. 31 is a top plan view of the container handling system of FIG. 30;

FIG. 32 is a side elevation view, partially broken away of the automatedcontainer handling system of FIG. 30;

FIG. 33 is a rear elevation view of the container handling system ofFIG. 30;

FIG. 34 is a front perspective view of the container handling system ofFIG. 30 shown in another operative position;

FIG. 35 is a top plan view of the container handling system of FIG. 34;

FIG. 36 is a side elevation view, partially broken away of the containerhandling system of FIG. 34;

FIG. 37 is a rear elevation view of the container handling system ofFIG. 34;

FIG. 38 is a front elevation view of a portion of a container handlingapparatus in accordance with the invention;

FIG. 39 is a front elevation view of another portion of the containerhandling apparatus of FIG. 34;

FIGS. 40-42 illustrate a front diagrammatic elevation view illustratinga portion of the container handling apparatus in accordance with theinvention;

FIGS. 43-44 illustrate a side elevation view, partly in section, of aportion of the food packaging apparatus in accordance with theinvention;

FIG. 45 is a top plan view of a food packaging device in accordance withthe present invention;

FIG. 46 is a perspective view of a container-receiving receptacle inaccordance with the present invention;

FIG. 47 is a top plan view of the device of FIG. 47;

FIG. 48 is a sectional view along line 48-48 of FIG. 47;

FIG. 49 is a cross-sectional view along line 49-49 of FIG. 47 andfurther including a portion of a conveyor system in accordance with thepresent invention;

FIG. 50 is a sectional view along line 50-50 of FIG. 49;

FIG. 51 is a front elevation view of a carton useful in accordance withthe present invention;

FIG. 52 is a rear elevation view of a carton useful in accordance withthe present invention;

FIG. 53 is a sectional view along line 53-53 of FIG. 52;

FIG. 54 is a bottom plan view of the container of FIG. 51;

FIG. 55 is a sectional view along line 55-55 of FIG. 57;

FIG. 56 is a perspective view showing use of the food container of FIG.51;

FIG. 57 is a perspective view of a food container useful in accordancewith the present invention;

FIG. 58 is an alternate embodiment perspective view of a containeruseful in accordance with the invention;

FIG. 59 is a development view of the carton of FIG. 51;

FIG. 60 is a side elevation view of the carton of FIG. 51;

FIG. 61 is a sectional view of a portion of the food packaging device ofFIG. 25;

FIG. 62 is a sectional view of a portion of a food storage device inaccordance with the present invention;

FIG. 63 is a sectional view of the food storage device of FIG. 62;

FIG. 64 is a side elevation view, partly in section, a hood system inaccordance with the present invention;

FIG. 65 is a perspective view of an automated seasoning device inaccordance with one aspect of the invention;

FIG. 66 is a side elevation view of the seasoning device of FIG. 65;

FIG. 67 is a front elevation view of the seasoning device of FIG. 65;

FIG. 68 is a top plan view of the seasoning device of FIG. 65;

FIG. 69 is a diagrammatic view of a control system in accordance withthe present invention;

FIG. 70 is a diagrammatic view of a control system in accordance withthe present invention;

FIG. 71 is a diagrammatic view of a frying cycle in accordance with thepresent invention;

FIG. 72 is a schematic illustration of a sample touch screen monitoruseful in accordance with the invention; and

FIG. 73 depicts another touch screen layout in accordance with thepresent invention.

DETAILED DESCRIPTION OF THE INVENTION

General

In accordance with the present invention, an automated food processingsystem and method is provided. The automated food processing system andmethod in accordance with the invention allows food to be dispensed,fried and packaged in a suitable container or alternatively dispensed toa food holding area for subsequent processing by a human operator.

Referring to the Figures generally and in particular to FIGS. 1 and 3,there is illustrated an automated food processing system 100 inaccordance with the invention. Automated food processing system 100includes a food dispensing device 200, a fry device 400 and a foodpackaging device 600. In accordance with one embodiment of the presentinvention, each of dispensing, fry and packaging devices 200, 400 and600, respectively, can be constructed and are sometimes illustrated in“modular” construction or form. By “modular” construction or form it ismeant that dispensing, fry and packaging devices 200, 400 and 600,respectively, can exist and be contained in separate cabinets, forexample, and also operate independently of the other devices. Thus, ifone of dispensing, fry and packaging devices 200, 400 and 600,respectively, are inoperative or are otherwise deactivated, the functionof the deactivated or inoperative device can be performed manually. Forexample, food to be fried could be manually dispensed in place ofdispensing device 200. Alternatively, food to be fried could be fried ina conventional fry vat after being dispensed from dispensing device 200in place of using fry device 400 and food that is dispensed and fried indispensing and fry devices 200 and 400, respectively, could, in turn, bepackaged manually, for example.

To facilitate such modular construction and use, each of dispensing, fryand packaging devices 200, 400 and 600, respectively, can be containedin a separate wheeled cabinet, 202, 402 and 602, respectively, asillustrated in FIG. 1. Alternatively, dispensing, fry and packagingdevices 200, 400 and 600, respectively, could be mounted as a singleunit or in a single cabinet or in “non-modular form,” as desired, ormore than one of such devices 200, 400 and 600 could be so mounted orcombined.

A suitable control system for the dispensing, fry and packaging devicesis also provided. As will be described more completely hereafter, in oneembodiment, the control system includes a central control system 110that can interface with a point-of-sale system 112. The central controlsystem will communicate with separate subcontrol systems 114, 116 and118, one for each of the dispensing, fry and packaging devices 200, 400and 600, respectively. Alternatively, a single central control system(not shown) could be utilized in place of individual control systems foreach of devices 200, 400 and 600. Similarly, as another alternative, asingle central control system could be utilized to control the overalloperation of automated food processing system 100 as well as controllingthe individual functions and aspects of dispensing, fry and packagingdevices 200, 400 and 600.

The basic operations of dispensing device 200, fry device 400 and foodpackaging device 600 will now be briefly discussed and discussed indetail hereafter.

Briefly, dispensing device 200 functions to dispense a quantity of foodto be fried to fry device 400. In one aspect of the invention, anysuitable food dispensing device can be utilized. Dispensing device 200can include a cabinet 202 to house the components of dispensing device200. In one embodiment, cabinet 202 will be refrigerated, preferablybelow 32° F. so that the food contents therein will remain frozen. Thisallows the food stored in dispensing device 200 to remain therein for along period of time, much longer than if the contents were merelyrefrigerated (above freezing) or merely at room temperature.

In the illustrated embodiment, dispensing device 200 includes anuncooked bulk food dispensing container 204. Uncooked bulk fooddispensing container 204 may be utilized for food such as French friesor chicken nuggets, for example. Other types of food may also becontained in a dispenser such as uncooked bulk food dispensing container204. Typically, those types of food would be in the form of relativelysmall pieces compared to relatively large food pieces such as chickenpatties, for example.

For relatively large food pieces, a large food dispensing container isutilized. In one embodiment, the large food dispensing container is inthe form of a magazine food dispenser 206.

Food dispensed from a dispenser of dispensing device 200 is deposited ona conveyor 208 that, in turn, directs the deposited food to a secondaryor dump container 210 for subsequent discharge from dispensing device200.

In the illustrated embodiment, uncooked bulk food dispensing container204, magazine food dispenser 206, conveyor 208 and secondary container210 are contained in cabinet 202, which is a refrigerated environment,preferably maintained below freezing (32° F. or lower).

While any suitable conveyor can be utilized in one aspect, conveyor 208is preferably a vibratory conveyor, vibrated by a suitable vibratorymechanism that vibrates a conveyor body 214. Conveyor body 214 may takethe form of a suitably shaped tray, for example.

By containing the foregoing components in a refrigerated and preferablyfrozen environment, consistency in food preparation and dispensing isachieved, thereby contributing to the overall efficient, effective anduniform performance of automated food processing system 100.

Secondary container 210 can be of a form as desired and includessuitable weighing mechanism 216 to permit a determination of thequantity of food contained in secondary container 210. Weighingmechanism 216 can be any suitable device to weigh the contents orotherwise determine the amount of food in secondary container 210.Weighing mechanism 216 may comprise a load cell or a mechanism fordetermining the volume of food deposited into secondary container 210,for example. In this manner, the amount of food that is charged to frydevice 400 at a particular time can be determined. In addition, weighingmechanism 216 can be operated during operation of conveyor 208 and theoperation of conveyor 208 continued until a desired amount of food isdeposited in secondary container 210. In this manner, a precise amountof food can be delivered to secondary container 210 thereby permittingconsistency and uniformity in the portion of food that is delivered tofry device 400. This is also important to ensure that a sufficientquantity of food is being cooked by automated food processing system100.

Prior to activation of dumping mechanism 218, discharge door 220 ofcabinet 202 is opened by operation of a door opening device which can beany suitable device as desired and in the illustrated embodiment is acylinder 222 attached to discharge door 220 and moveable up and down inthe direction of arrow B. Cabinet 202 is preferably insulated with asuitable insulating material 224 that is also provided in discharge door220. The provision of a suitable insulating material is important,particularly since dispensing device 200 will typically be locatedproximate or adjacent fry device 400 that operates at a substantiallyelevated temperature, thereby typically generating substantial heat.

In the illustrated embodiment, dispensing device 200 includes fourdispensing lanes from which food is discharged from dispensing device200 and to a suitable location such as fry device 400. After dispensingthrough discharge door 220, cylinder 222 is activated to close dischargedoor 220. Similarly, dumping mechanism 218 of secondary container 210 isactivated to return secondary container 210 to its upright position toreceive more food.

Fry device 400 includes a fry wheel 404, a fry vat 406 for containingand heating a suitable cooking oil and a drive mechanism 408 forsuitably rotating fry wheel 404. It is to be understood that inaccordance with one aspect of the invention any suitable frying devicecan be utilized.

In the illustrated embodiment of FIGS. 3 and 11-16, fry device 400includes a plurality, in this case four, of separate fry wheels 404,410, 412 and 414, as well as four separate fry vats 416, 406, 420 and418 and a separate drive mechanism 408 for each fry wheel, eachdedicated to a particular one of fry wheels 404, 410, 412 and 414.

In one embodiment, a separate drive mechanism is provided for each offry wheels 404, 410, 412 and 414 and can be suitably located in cabinet402, preferably in a location that is above the level of cooking oilpresent in the associated one of fry vats 416, 406, 420 and 418,respectively.

The suitable rotation of each of fry wheels 404, 410, 412 and 414 can beas desired to direct food articles loaded therein down and through thefry vat until reaching the other side of the fry vat whereupon the foodarticles are discharged. The rotation can be either continuous or aperiodic incremental rotation. For example, a suitable drive mechanismcan be provided to periodically rotate fry wheel 410 in a desiredrotational increment, which may be based on the number of compartmentscontained in fry wheel 410. In the illustrated embodiment of FIG. 13,for example, fry wheel 410 comprises eight food compartments 422, 424,426, 428, 430, 432, 434, and 436. Each of food compartments 422-436 is aperimeter food compartment and open to the perimeter or exterior of frywheel 410. Each of fry wheels 404, 412 and 414 can be similarlyconfigured.

As described in more detail hereafter, each of compartments 422-436 isformed from a perforated curved compartment forming member 510.

In the rotation of fry wheel 410, a periodic incremental rotation can bebased upon 360° divided by the number of compartments. Thus, forexample, in the illustrated embodiment of FIG. 13, each periodicrotation would consist of a rotation of 360° divided by eightcompartments or a periodic rotation increment of 45°. Thus, asillustrated in FIG. 13, the food contained, in this case French fries,in compartments 424-430 would remain in cooking oil 454 contained in fryvat 406 for all or part of four incremental rotations, after which thefood would be discharged from fry wheel 410 in the next incrementalrotation thereof. For example, as illustrated in FIG. 13, compartment422 is ready to receive a charge of food to be fried, compartment 424has a charge of food that has been just immersed in cooking oil 454.Cooking oil 454 is at a level H as illustrated in FIG. 13, which isdependent upon the amount of food contained in compartments 422-436 thatare submerged in cooking oil 454.

Similarly, compartment 426 has food contained therein that has gonethrough two incremental 45° rotations of fry wheel 410, compartment 428has food contained therein that has undergone three incrementalrotations and food compartment 430 has food contained therein that hasundergone four incremental rotations of fry wheel 410 and compartment432, which is now empty, has discharged the food contained therein uponthe last incremental rotation of fry wheel 410. Thus, upon the nextincremental rotation of fry wheel 410, which is in the clockwisedirection as shown by arrow B of FIG. 13, the food contained in foodcompartment 430, which in this case is a quantity of French fries 455,will be discharged from compartment 430 to the food packaging devicewhich is hereafter briefly described.

Upon discharge of food, which in this case is a quantity of French friesfrom one of compartments 422-436 of a fry wheel, such as fry wheel 410as illustrated in FIG. 3, the food is deposited onto an inlet chute 604of food packaging device 600.

From inlet chute 604, the food from inlet chute 604 received from frywheel 410 is deposited into rotatable food dispensing member 606.Typically, rotatable food dispensing member 606 will be compartmentedinto a plurality of compartments that are arrayed along the periphery ofrotatable food dispensing member 606.

Rotatable food dispensing member 606 has a discharge location todischarge the food deposited therein. The discharge location isgenerally located towards an upper portion of rotatable food dispensingmember 606. A food dispensing chute mechanism 608 is positioned toreceive cooked food from the discharge location of rotatable fooddispensing member 606. In a preferred embodiment, food dispensing chutemechanism 608 incorporates a device for weighing or otherwisedetermining the quantity of food that has been deposited into fooddispensing chute mechanism 608. This ensures that when food is dispensedfrom food dispensing chute mechanism 608 a minimum quantity of food willbe dispensed, thereby ensuring that a container 611 or other packagethat is to receive the food from mechanism 608 will receive a desiredcharge.

Food packaging device 600 preferably also includes a suitable automatedcontainer handling system 610. Automated container handling system 610is capable of, in a preferred embodiment, selecting container 611 of adesired size, retrieving and grasping container 611, erecting unerectedcontainer 611 into an erected form and holding the erected container 611in position to receive food dispensed from food dispensing chutemechanism 608.

After food container 611 receives food from food dispensing chutemechanism 608, automated container handling system 610 is capable ofmoving container 611 having food deposited therein to a containerreceiving receptacle 612 which receptacle 612 can be transported via aconveyor system 614 to a desired location for subsequent pickup ofcontainer 611 having food contained therein by a human operator, forexample.

Preferably, a food overflow collection member is provided to collect anyfood dispensed by food dispensing chute mechanism 608 that is notdeposited into container 611. In one embodiment, the overflow foodcollection device is a rotatable food collection member 613. Overflowfood collection member 613 functions to collect food dispensed by fooddispensing chute mechanism 608 that is not received in container 611 andto recycle food collected by overflow food collection member 613 intofood dispensing chute mechanism 608 for subsequent dispensing to acontainer in a first-in, first-out manner so that overflow food ispromptly recycled to dispensing chute 608 for dispensing to a container.

Preferably, food packaging device 600 is configured to include aprovision by which food contained in dispensing device 600 is routed towaste where it is not desired to dispense such food into a foodcontainer. Such a condition could arise, for example, if food is heldfor too long a period in food packaging device 600. This function may beaccomplished, for example, by providing a waste discharge location whichcan be in the form of a waste chute 615 to which food from rotatablefood dispensing member 606 and overflow food collection member 613 canbe directed. In one embodiment, chute mechanism 608 is lowered andmember 606 is rotated to dispense food to chute mechanism 608, which inturn dispenses into member 613. Member 613 is rotated counterclockwiseto deliver food to waste chute 615. This process can be continued untilall of the food in device 600 is so emptied, if desired.

Preferably, a suitable structure for applying a desired quantity ofseasoning to food contained in food packaging device 600 is provided. Inthe embodiment illustrated in FIG. 3, a food seasoning device 616 isprovided. Food seasoning device 616 can be any suitable seasoning deviceas desired. In one embodiment, food seasoning device 616 dispenses adesired quantity of seasoning from a bulk storage container through adelivery tube and onto food located in rotatable food dispensing member606.

Preferably, and in the embodiment illustrated in FIG. 3, a foodseasoning device 616 is provided that directs a desired quantity ofseasoning onto food that is contained in a bottom portion of rotatablefood dispensing member 606 and inlet chute 604 via a seasoningdispensing head 618.

Preferably, conveyor system 614 is composed of a raceway 620 that is anendless loop around the periphery of the top surface of cabinet 602 offood packaging device 600, which in one embodiment can be a modular,wheeled cabinet. Conveyor system 614 causes container receivingreceptacle 612 to travel around raceway 620 to a food container pickuplocation 622 where a human operator can pickup food containers havingfood therein. Preferably, conveyor system 614 includes structure forstopping movement of a container/receiving receptacle 612 at apredetermined location when carrying a food container, such as at foodcontainer pickup location 622. Such structure in one embodiment maycomprise a gate structure 928 or 928′ of FIG. 45 and FIGS. 25-27,respectively, that extends across at least a portion of raceway 620 inthe vicinity of the predetermined location. Any suitable type of barrierstructure can be utilized to prevent the desired movement. Mostpreferably, gate structure 928 or 928′ will be located at a height thatis above the top of the receptacle when located on conveyor system 614so that movement of container/receiving receptacle 612 is prevented orstopped only for a receptacle 612 that has a food container 611 disposedthereon. Note that the pickup location can be configured as desired andslightly different configurations 622 and 622′ are shown in FIG. 45 andFIGS. 25-27, respectively.

Referring to FIG. 2, there is illustrated an alternate embodiment of anautomated food processing system 101 in accordance with the invention.Automated food processing system 101 includes a food dispensing device201 which is similar to food dispensing device 200, previously brieflydescribed, where like reference numerals represent like elements. Fooddispensing device 201 includes fewer uncooked bulk food dispensingcontainers 204 and additional magazine food dispensers that are similarto magazine food dispenser 206, previously referred to. Otherwise,dispensing device 201 is similar to dispensing device 200 previouslydescribed.

Automated food processing system 101 also includes fry device 400, whichhas been described.

One primary distinction between automated food processing system 100 andautomated food processing system 101 is that automated food processingsystem 101 does not include an automated packaging device such asautomated packaging device 600. In place of food packaging device 600, afood storage device 635 is provided. Food storage device 635 allows foodcooked by food frying device 400 to be stored in a heated environmentfor subsequent manual processing. As configured in FIG. 2, food storagedevice 635 includes separate heated product receiving receptacles 637,639, 641 and 643. Each receptacle 637, 639, 641 and 643 is dedicated toreceiving food from a respective one of fry wheels 410, 412, 414 and404, respectively. In addition, each receptacle 637-643 can have placedtherein a suitable container to receive food, such as handled trays 645,647, 649 and 651.

As illustrated in FIG. 2, a food item F is being discharged from frywheel 414 down a chute 653 and into handled tray 649 contained withinheated receptacle 641. Food item F can be stored therein for a period oftime until it is ready for subsequent processing.

Food Dispensing Device

Referring to the Figures generally and in particular to FIGS. 1-10,there is illustrated various embodiments of food dispensing devices andportions thereof in accordance with the invention.

In one embodiment, food dispensing device 200 is illustrated orpartially illustrated in FIGS. 1 and 3-8. Food dispensing device 200includes a cabinet 202, bulk uncooked food dispensing containers 204,205 and 207, magazine food dispenser 206, 209, 211 and 213, and asuitable conveyor system for each lane 234, 236, 238 and 240 of fooddispensing device 200. Any suitable number of magazine dispensers can beused for a particular lane, such as one, two, three, four, five or more,and the illustrated embodiment of four is merely an example. Asconfigured in FIG. 1, for example, lane 234 receives material from bulkhopper 204, lane 236 receives food material from bulk hopper 205, lane238 receives food material from bulk hopper 207 and lane 240 receivesdispensed food from magazine food dispensers 206, 209, 211 and 213 aswill be described hereinafter in greater detail, particularly withrespect to food dispensing device 201 of FIG. 2, for example.

Each lane 234, 236, 238 and 240 dispenses food that is subsequentlydirected to fry wheels 410, 412, 414 and 404, respectively.

The components of lane 238 will now be described in detail and it is tobe understood that the components of lanes 234 and 236 are similar. Lane238 includes uncooked bulk food dispensing container 207 and a foodhandling system 242 which in this embodiment is identical for each lane234, 236, 238 and 240 as well as for each lane of food dispensing device201. It should be noted that food handling system 242, as for example,illustrated in FIGS. 3-6 is depicted with respect to lane 240 and thatfood handling system 242 is the same for each lane 234, 236, 238 and240.

Food handling system 242 includes conveyor system 208, secondarycontainer 210, weighing mechanism 216 and dumping mechanism 218.Conveyor system 208 includes vibratory mechanism 212 and conveyor body214.

Uncooked bulk food dispensing container 204 can be of a shape anddimension generally as desired. Preferably, uncooked bulk fooddispensing container 204 has an upper opening to permit a supply of foodto be placed in uncooked bulk food dispensing container 204. Upperopening 244 as illustrated is located in an upper rear portion ofuncooked bulk food dispensing container 204 and can be convenientlyaccessed via a rear door 246 of cabinet 202. Rear door 246 preferably isinsulated with suitable insulation material 224.

Uncooked bulk food dispensing container 204 is composed of a pair ofopposed upper sidewalls 248, a pair of generally opposed lower sidewalls250 and front and rear walls 252 and 254, respectively, which connecttogether upper sidewalls 248 and 250 to provide uncooked bulk fooddispensing container 204. Front sidewall 252 includes a lower portion252′ that extends inwardly from top to bottom to further facilitatedischarge of food contained in uncooked bulk food dispensing container204. Preferably, lower generally opposed sidewalls 250 are slightlyindented from top to bottom to facilitate the discharge of food that maybe contained therein.

Uncooked bulk food dispensing container 204 includes a bottom opening256 that permits the discharge of food contained therein. Bottom opening256 can be configured as desired and in the illustrated embodiment theentire bottom of uncooked bulk food dispensing container 204 is open. Inthe illustrated embodiment, uncooked bulk food dispensing container 204is particularly suited for use with food such as French fries andchicken nuggets as well as other types of food of relatively small size.

Uncooked bulk food dispensing container 204 is suitably mounted withincabinet 202. While a suitable mounting structure can be utilized, it ispreferred to utilize a structure that will minimize heat transfer fromthe exterior and through cabinet 202 to uncooked bulk food dispensingcontainer 204, particularly where cabinet 202 is refrigerated,especially where temperatures below freezing are utilized. In thatregard, front mounting bracket 258 and rear mounting bracket 260 eachare configured to minimize heat transfer from cabinet 202 to uncookedbulk food dispensing container 204. In that regard, front mountingbracket 258 and rear mounting bracket 260 include openings, 258′ and260′, respectively, to minimize such heat transfer and to maximizeairflow around the containers 204, 205, 207 and dispensers 206, 209, 211and 213. Similarly, materials of low thermal conductivity can also beutilized, if desired, for brackets 258 and 260. Generally, to minimizeheat transfer and to maximize airflow, the surface area contact andcross-sectional area of mounting brackets 258 and 260 should beminimized to reduce heat transfer and “hot spots” on uncooked bulk fooddispensing container 204.

As illustrated in FIGS. 3 and 4, for example, food contained in uncookedbulk food dispensing container 204 passes through bottom opening 256 andonto conveyor body 214 which in the illustrated embodiment is a suitablydimensioned pan. Conveyor body 214 is suitably mounted to vibratorymechanism 212 to effect vibration of conveyor body 214 as well as foodcontained therein and food contained in uncooked bulk food dispensingcontainer 204, and in particular the lower portion of container 204.This vibration facilitates the discharge of food from uncooked bulk fooddispensing container 204 and causes food contained in conveyor body 214to travel in the direction of arrow G. Any suitable conveyor system canbe used in accordance with one aspect of the invention.

A preferred type of vibratory mechanism is available from FMCTechnologies, Inc. of Chicago, Ill. marketed under the model F-010-B andDF-010-B. Vibratory mechanism 212 is preferably an electromagneticvibrating mechanism. Vibratory mechanism 212 in one embodiment producesa vibrating stroke at the surface of conveyor body 214. The strokeresults from the action of an electromagnet that pulls conveyor body 214sharply down and backward and then allows it to spring up and forward.Typical vibratory mechanisms of this type run at about 3,600vibrations/minute at 60 Hz power. The power of the vibrating stroke canbe controlled by a suitable drive module as is known in the art. In oneembodiment, vibratory mechanism 212 can be operated at about 85% of fullpower during filling of secondary container 210 with food. For the firstpart of a fill cycle of secondary container 210, vibratory mechanism 212can be run continuously, then pulsed by turning its power on and offperiodically so that vibratory mechanism 212 operates about 50% of thetime to finish filling secondary container 210 with a desired quantityof food, thereby providing better control on the last part of the foodcharged to secondary container 210.

Food dispensing device 200 preferably includes a suitable mechanism todetermine the weight or volume of a charge of food delivered by conveyorsystem 208 to secondary container 210. The amount may be determinedeither by weight or volume, for example. In the illustrated embodiment,weighing mechanism 216 is operatively interfaced with secondarycontainer 210 to provide an indication of the weight of food containedin secondary container 210. The weight sensed in secondary container 210by weighing mechanism 216 is communicated with control system 114 offood dispensing device 200. Control system 114 monitors and controls theoperative functions of food dispensing device 200 as hereinafterdescribed in greater detail.

Optionally, a level sensor can be employed in uncooked bulk fooddispensing container 204 to provide an indication of the amount of foodstored therein that is available for dispensing. Any suitable levelindicator known in the art can be utilized in accordance with theinvention such as photoelectric, weight, turning fork and others, forexample.

Secondary container 210 can be considered as a dump container and asassociated therewith, dumping mechanism 218 for rotating secondarycontainer 210 through an arc as indicated by arrow B sufficiently todump the contents of secondary container 210. Any suitable dumpingmechanism can be utilized. Illustrated dumping mechanism 218 includes adump cylinder 264 that is secured to a base 266. Dump cylinder 264 canselectively rotate a drive gear or wheel 268 that, in turn, isoperatively associated with a follower gear or wheel 270 to causerotation of follower gear or wheel 270. Secondary container 210 isrigidly secured to follower gear or wheel 270 so that when follower gearor wheel 270 is rotated by drive gear or wheel 268 secondary container210 is rotated through an arc that causes secondary container 210 torotate forward to a dumping position as illustrated in phantom lines inFIG. 3 indicated by reference numeral 210′. Such movement is caused byextension of dump cylinder 264. Similarly, retraction of dump cylinder264 moves secondary container 210 from the dump position indicated byreference numeral 210′ to the upright position indicated by referencenumeral 210 in FIG. 3 where secondary container 210 is ready to receivea charge of food from conveyor system 208, which in the illustratedembodiment the food is French fries FF.

An alternative embodiment for secondary container 210 is illustrated inFIG. 4A. Secondary container 210′ is composed of a pair of opposedspaced apart sidewalls 211 (only one sidewall 211 is illustrated and isdepicted in a half-moon configuration) and a pair of sidewalls 213 a and213 b, oriented in a V-shaped relationship when container 210′ isconfigured to receive food from conveyor body 214. Sidewall 213 a ismounted for pivotal movement about apex 215 of sidewalls 213 a and 213b. Such movement is accomplished by a drive mechanism similar tocylinder 264, drive gear 268 and driven gear 270, which in thisembodiment are cylinder 264′, drive gear 268′ and driven gear 270′,which gear 270′ is attached to sidewall 213 a. When cylinder 264′ isextended, sidewall 213 a is caused to pivot downwardly as indicated byarrow AA to the position of sidewall 213 a shown in phantom, thereby,causing the contents (French fries FF) of container 210′ to be dumped.Sidewalls 211 act as sidewall guides for sidewalls 213 a and 213 b whensidewall 213 a is in a lowered position, in which case sidewalls 213 aand 213 b act as a chute or slide.

Control system 262 coordinates the operation of the various functions offood dispensing device 200. For example, when food dispensing device 200is ready to dump a charge of food from secondary container 210 out offood dispensing device 200, control system 262 activates cylinder 222 toopen discharge door 220 thereby permitting the food charge in secondarycontainer 210 to be dumped by dumping mechanism 218 through opendischarge door 220. After dumping of the food charge is completed,control system 114 causes dump cylinder 264 to be retracted therebyreturning secondary container 210 to a position ready to accept afurther charge of food from conveyor system 208. Cylinder 222 has oneend rigidly secured to cabinet 202 or some other suitable location andthe other end of cylinder 222 is attached to discharge door 220.Typically, discharge door 220 will have a suitable guide mechanism,which may be tracks, slots or other suitable apparatus to guidedischarge door 220 to its open and closed positions. Cylinder 222 isoperable to move door 220 up and down as indicated by arrow B in FIG. 6to thereby open and close discharge door 220 as desired. In theillustrated embodiment, discharge door 220 extends across all fourdispensing lanes 226, 228, 230 and 232. If desired, a separate dischargedoor could be provided for each of dispensing lanes 226, 228, 230 and232. In addition, control system 262 causes activation of cylinder 222to close discharge door 220 to prevent heat from entering into cavity272 of food dispensing device 200 in which the food and variousdispensing mechanisms are contained as illustrated in FIGS. 3 and 6, forexample.

Food dispensing device 200 can contain suitable refrigeration components274 such as within a lower portion of cabinet 202 as shown schematicallyin FIG. 1. In accordance with the preferred embodiment of fooddispensing device 200, refrigeration components 274 provide sufficientcooling to provide a below freezing temperature environment in cavity272. Alternatively, suitable refrigeration components can be providedexteriorly of cabinet 202 and even at a remote location as desired. Inaddition, a storage compartment 276 and a storage compartment door 278may also be provided in cabinet 202. An upper side access door may alsobe provided to permit operator access to the interior of cavity 272where uncooked bulk food dispensing containers 204 and/or magazine fooddispensers 206 and/or 209, 211 and 213 are located.

Referring to FIGS. 2 and 7-10, there is illustrated another embodimentof food dispensing device 201 in accordance with the present invention.

Food dispensing device 201 has many similarities to food dispensingdevice 200 previously described where like reference numerals representlike elements. Thus, food dispensing device 201 includes cabinet 202,four product dispensing lanes 226, 228, 230 and 232 with each such laneincorporating conveyor system 208, secondary container 210, vibratorymechanism 212, conveyor body 214, weighing mechanism 216, dumpingmechanism 218, discharge door 220, cylinder 222, insulating material224, food handling system 242, upper opening 244, rear door 246,uncooked bulk food dispensing container 204 which is associated withproduct dispensing lane 234, a dump cylinder 264 for each productdispensing lane, cavity 272, refrigeration components 274, storagecompartment 276 and a storage compartment door 278. Product dispensinglanes 228, 230 and 232 each have associated therewith a plurality ofmagazine food dispensers 280-308 arrayed to provide in the embodimentillustrated in FIG. 9 five magazine food dispensers per productdispensing lane in which there are three product dispensing lanesserviced by the foregoing magazine food dispensers. Consequently,magazine food dispensers are configured in a three-by-five array and aresuspended from a magazine food dispenser support 310 as shown in FIG. 9.Each row of three magazine food dispensers depends from magazine fooddispenser support 310 via a slide assembly 312. Slide assembly 312 issimilar to a drawer slide including a pair of first and second elongatedtelescoping left and right slides 314 and 316, respectively. Suitableupper rollers 318 are mounted to magazine food dispenser support 310 andlower rollers 320 depend from magazine food dispensers 280-308 fortraversing left and right elongated telescoping slides 314 and 316.

Suitable mounting brackets 322 are provided which depend upwardly frommagazine food dispenser support 310 for mounting to cabinet 202.

In addition, suitable mounting brackets 324 are provided which dependdownwardly from magazine food dispenser support 310 for mounting slideassembly 312 thereto allowing magazine food dispensers 280-308 to dependtherefrom.

Magazine food dispenser support 310 has a series of holes 326 and 328therein. Holes 326 can be provided to allow increased airflow andcooling. Holes 328 can also be provided to provide increased airflow andcooling for magazine food dispensers 280-308.

Each of magazine food dispensers 280-308 and 206, 209, 211 and 213briefly discussed with respect to food dispensing device 200 are similarin construction. Magazine food dispenser 206 will be discussed withrespect to FIGS. 7 and 8 and it is to be understood that the othermagazine food dispensers are of similar construction.

Magazine food dispenser 206 includes a body or housing 330 that includessidewalls 332 and 334, front walls 336 and 338 and corresponding rearwalls (not shown) and can be attached in a removable manner if desired,including in a snap-on arrangement to facilitate cleaning. Magazine fooddispenser 206 also includes a top member or cover 340 having mountedthereover a drive mechanism 342. Drive mechanism 342 includes a drivegear or wheel 344 and a driven wheel or gear 346. Depending from each ofdrive wheel or gear 344 and driven wheel or gear 346 is a spiral flightthat is vertically or generally vertically oriented relative to thelongitudinal axis of spiral flights 348 and 350. If desired, a singlespiral flight dispenser (not shown) could also be utilized.

Body 330 of magazine food dispenser 206 can include substantial openportions such as front open portion 352 and a corresponding rear openportion (not shown). Such open portions may have a cover or access doorthereover (not shown). Such open portions can be desirable to permitairflow through magazine food dispenser 206 since generally suchdispenser will be contained in a refrigerated environment and suchopenings help ensure that food contained therein remains frozen orchilled as desired. A vertical divider (not shown) can be providedbetween spiral flights 348 and 350 if desired.

A plurality of generally vertically disposed and spaced apart rods 354,356 and 358 may be provided at the front of magazine food dispenser 206adjacent spiral flights 348 and 350 and similar rods can be provided atthe back of magazine food dispenser 206. Rods 354, 356 and 358 preventfood pieces from falling out of spiral flights 348 and 350 and tomaintain spiral flights 348 and 350 in a vertical orientation.

Magazine food dispenser 206 has an open bottom 360 through which foodpieces can be dispensed during operation.

During operation, drive wheel 344 can be driven by a suitable electricmotor, such as an electric motor 362, 364 and 366 shown with respect tomagazine food dispensers 280, 282 and 284 in FIG. 9. Alternatively,other drive devices could be used, including, for example, a rotary airor hydraulic cylinder. Rotation of drive wheel 344 in a clockwisedirection causes driven wheel 346 to rotate in a counterclockwisedirection by virtue of the intermeshing or contact between drive wheelor gear 344 and driven wheel or gear 346. Such rotation causescorresponding rotation of spiral flights 348 and 350, respectively. Foodcontained by spiral flights 348 and/or 350 is moved downwardly by virtueof such rotation. When such food reaches the bottom of spiral flights348 and/or 350, respectively, such food is discharged from magazine fooddispenser 206 through open bottom 360 and onto conveyor system 208 forhandling as previously described. A single motor could be used to drivea plurality of dispensers 280, 282 and 284, etc. through a suitabledrive mechanism (not shown).

As shown in FIG. 8, pieces of food can be contained by magazine fooddispenser 206 in two different ways. For example, individual pieces offood may each be contained by a single elongated spiral flight 348 or350 as shown with respect to food pieces F1 and F2, respectively. Foodpieces F1 and F2 can be any type of desired food and may be a food itemsuch as a hash brown, an individual portion pie, rectangular food patty,or other type of food as desired. Chicken nuggets and other food canalso be dispensed with the bulk dispenser previously described. Largeritems of food can span across portions of both elongated spiral flights348 and 350 as illustrated with respect to food item F3, which may be alarger food item, such as a chicken patty, or other type of food articleas desired. Spiral flights 348 and 350 can be of a desired radialdiameter so that the food piece or pieces that are to be contained anddispensed in magazine food dispenser 206 can be accommodated asillustrated in FIG. 8. Each spiral can contain a food piece so that asillustrated in FIG. 7, the illustrated spirals of spiral flights 348 and350 could each accommodate twelve food pieces such as food pieces F1 orF2 for a total of twenty-four food pieces or twelve food pieces such asfood piece F3 of FIG. 8. As will be appreciated, spiral flights having agreater or lesser number of flights can be used if desired to hold agreater or lesser number of food pieces, respectively.

A suitable home position sensor 362′ can be utilized to indicate a homeor start position of each of spiral flights 348 and 350. As illustratedin FIG. 7, a pair of position indicating sensors 362′ and 364′ areutilized and mounted on drive wheel 344 180° apart for more preciselocating of the position of spiral flights 348 and 350. Sensors 362′ and364′ can be proximity sensors that align with corresponding sensorpickups on the respective drive gear or motor for magazine fooddispenser 206 (not shown).

Preferably, spiral flights 348 and 350 are offset by one rotation sothat a single food item such as food item F1 or F2 in FIG. 8 will bedispensed from one of either spiral flight 348 or 350 for each one-halfrotation of spiral flights 348 and 350.

Preferably, food dispensing device 200 and food dispensing device 201are constructed in modular form, an example of which is illustrated inFIGS. 1 and 2, respectively. Wheels 368 are provided to permit cabinets202, 402 and 602 to be suitably transported across a relatively flatsurface, such as a restaurant work area floor.

Food Frying Device

Referring to the Figures generally, and in particular to FIGS. 1-2 and11-24, there is illustrated fry device 400 and various components andalternative components thereof in accordance with the invention.

In one embodiment, fry device 400 includes cabinet 402, four fry wheels404, 410, 412 and 414, four fry vats 406, 416, 418 and 420, four drivemechanisms 408, one for each of fry wheels 404, 410, 412 and 414. Eachfry vat 406, 416, 418 and 420 is dimensioned to contain a desired volumeof a suitable cooking oil. Each fry vat 406, 416, 418 and 420 isdedicated to one of fry wheels 404, 410, 412 and 414, respectively.

In operation in the preferred embodiment, fry device 400 is positionedto receive the food dispensed from a food dispensing device, such asfood dispensing device 200 and food dispensing device 201. Consequently,it is advantageous to position fry device 400 adjacent food dispensingdevice 200 or 201 as illustrated in FIGS. 1 and 2, respectively. Asuitable control panel 456 can be provided and located in a suitablelocation, such as on the side of cabinet 402. In the illustratedembodiment, control panel 456 contains a separate display for each offry wheels 404, 410, 412 and 414 referred to by reference numerals 456a-d, respectively. Control panels and displays 456 a-d can includeinformation such as set cycle time, oil temperature, oil level as wellas controls to adjust cycle time and oil temperature, for example.

Referring to FIG. 13, there is illustrated fry wheel 410. Fry wheel 410includes two opposed circular spaced apart circular disks 458 a and 458b. Disks 458 a and 458 b can include a plurality of apertures 460 asdesired to reduce wheel weight and to provide circulation of cooking oiland to permit passage of water vapor therethrough, such as during fryingfood products, for example. A fry wheel axle 462 is provided to whichdisks 458 a and 458 b are mounted. Axle 462 is suitably mounted,typically and preferably for rotation with respect to fry vat 406 at alocation above the normal level of cooking oil or range of levels ofcooking oil that will be encountered in fry vat 406 during operation.

In one embodiment, outer peripheral edge 464 of each of disks 458 a and458 b include a plurality of teeth 466.

Teeth 466 can be utilized to drive fry wheel 410 in a manner ashereinafter described. Referring to FIGS. 14-16, there is illustrated insectional view of disk 458 a of fry wheel 410, a portion of which islocated within fry vat 406. A drive wheel 468 is associated in operativeposition relative to teeth 466 located on outer peripheral edge 464 ofdisk 458 a. Drive wheel 468 can be formed from a disk of material of asuitable thickness having a circumferential groove 470 therein.Circumferential groove 470 is typically at least or slightly greaterthan the thickness of disk 458 a in the area where drive wheel 468 anddisk 458 a are juxtaposed as illustrated in FIGS. 14 and 15. A series ofspaced apart pins 472 extend across circumferential groove 470 and areradially arrayed and spaced from the center of drive wheel 468. Drivewheel 468 includes a central aperture 474 through which a drive axle 476can be mounted. In operation, drive wheel 468 is rotated by drive axle476 with drive wheel 468 being positioned a fixed distance from disk 458a so that pins 472 mesh with teeth 466 when rotated as illustrated inFIG. 14 thereby causing rotation of disk 458 a and consequently frywheel 410 in a direction of rotation opposite to the rotation of drivewheel 468, as indicated by arrows K and L of FIG. 14.

It is to be understood that any suitable drive wheel and drivearrangement can be utilized. For example, in place of drive wheel 468with pins 472, a drive arrangement could be utilized in which a drivegear is utilized to mesh with a corresponding gear located around theperiphery of disk 458 a and/or 458 b, for example. Alternatively, afriction drive system could be utilized in which a friction drive wheelwould contact the edge of one or both of circular disks 458 which couldbe of a design having no teeth therealong, such as illustrated inalternative embodiment wheels 479 and 481 described hereafter. Since thewheel will have cooking oil thereon, the coefficient of friction betweenthe drive wheel and fry wheel will be decreased. Care should be taken toassure that when using a friction drive, sufficient pressure ismaintained between the driving wheel and the fry wheel.

Referring to FIG. 16, there is illustrated a drive mechanism for drivingdrive wheel 468. The drive mechanism includes an electric motor 478, agear reduction drive 480, an output shaft 482, a drive pulley wheel 484,a driven pulley wheel 486 and a drive belt 488 extending around drivepulley wheel 484 and driven pulley wheel 486 to drive axle 476 whichthereby drives drive wheel 468 since the end 476 a of axle 476 is fixedin aperture 474 with respect to drive wheel 468. A shear pin 490 can belocated in a shear pin aperture 492 of drive wheel 468 to retain axle476 in a fixed position relative to drive wheel 468. Axle 476 issuitably contained within an axle journal 494 which, in turn, is mountedto frame 496 to permit movement of axle 476 relative to axle journal 494and frame 496. Similarly, motor 478 and gear reduction drive 480 aresuitably mounted to frame 496. If desired, motor 478 may be a steppermotor.

Typically, it is important that the fry wheel is rotated in periodicincrements for a compartment to be aligned with a respective dischargeslide 498 of fry device 400 or other slide, ramp or discharge locationafter a periodic rotation. Typically, the leading edge 500 of acompartment bottom, such as compartment bottom 432′ of compartment 432as shown in FIG. 13 is aligned with the upper edge of fry vat 406 or thetop edge of discharge chute 498 associated therewith to allow thecontents of compartment 432 to be discharged therefrom. As illustratedin FIG. 13, the contents of compartment 432 have already been dischargedfrom fry wheel 410. This is particularly important where incrementalrotation of fry wheel 410 is utilized as opposed to a continuouslymoving fry wheel. Thus, for incremental rotation it is desirable forbottom edge 500 of compartment 432 to be aligned with discharge 498 orthe upper edge 406′ of fry vat 406. In order to accomplish this, astepper motor can be utilized to drive fry wheel 410. Alternatively, orin addition, the position of the baskets can be sensed and theirposition adjusted accordingly to assure that all baskets are in thecorrect position for loading and discharge during operation. Also,utilizing location sensors allows use of a simple DC or AC motor, asopposed to a stepper or servo motor. Any suitable sensor can be utilizedin conjunction with a control system to control operation of the frywheel drive motor. Suitable sensors include proximity, magnetic reed,Hall Effect, photoelectric and capacitive sensors. Such sensors are wellknown in the art and consequently a detailed description of thosesensors is not included herein.

In accordance with another aspect of the invention, it should beunderstood that the height of cooking oil in one of fry vats 406, 416,418 and 420, such as the level of cooking oil indicated by referenceletter H in FIG. 13 in fry vat 406 will increase or decrease dependingupon the amount of food that is submerged underneath the surface ofcooking oil contained in fry vat 406. Thus, as illustrated in FIG. 13,compartments 424, 426, 428 and 430 each have a charge of food, in thiscase French fries 455 contained therein. Each compartment containsapproximately one pound of French fries 455. Consequently, there areabout four pounds of French fries that are beneath the surface level Hof cooking oil contained in fry vat 406. This quantity of submerged foodraises the level H of cooking oil in fry vat 406. This increase in thelevel of cooking oil can cause the food to be submerged and thereforecooked for a longer of period of time in the cooking oil. For example,contrast the level of cooking oil depicted in FIG. 13 with the level ofcooking oil depicted in FIG. 20 in which a charge of French fries 455 iscontained only within compartment 426. This results in a substantiallyreduced level of cooking oil H′ as indicated in FIG. 20. Thus, thecontrol system for fry device 400 can be adjusted to take into accountfor different levels of cooking oil which can be sensed by a suitablesensor as is known by those skilled in the art (not shown). Whererotation of fry wheel 410 is done incrementally after a period of timeelapses, the period between incremental rotations can be increased ordecreased as desired based on the level of cooking oil present in fryvat 406. For example, in the situation illustrated in FIG. 13, theduration between incremental rotation of fry wheel 410 could bedecreased compared to the situation depicted in FIG. 20 where the levelH′ of cooking oil is significantly lower than the level H of cooking oilin FIG. 13. This assumes that the temperature of cooking oil in each ofthe situations depicted in FIGS. 13 and 20 is substantially the same.Similarly, if a constant rotation fry wheel operation is utilized, suchas where fry wheel 410 would rotate constantly, the rotational speedcould be increased to handle the situation depicted in FIG. 13 comparedto the speed of the wheel that would be utilized for the situation inFIG. 20, where the level H′ of cooking oil in FIG. 20 is significantlyless than the level H of cooking oil in FIG. 13.

Referring to FIGS. 13 and 20, frying device 400 can also include a frywheel follower “or fry wheel liner” 502 which is supported by a frywheel follower support 504. Fry wheel follower 502 is a curvedperforated circular segment having a width approximately equal to thewidth of fry wheel 410. Fry wheel follower 502 is supported by a pair offry wheel follower supports 504 that are spaced apart and connected bylateral supports 506. Fry wheel follower 502 prevents food pieces thatare larger than the perforations in fry wheel follower 502 from fallingfrom fry wheel compartments 422-436 during operation. Preferably, theperforations in fry wheel follower 502 are composed of circular holeshaving a diameter of about 0.187 inches that are in staggered rowshaving a center-to-center hole distance of about 0.312 inches. Fry vat406 includes a suitable heating element 505, illustrated in FIGS. 13, 20and 21.

Referring to FIGS. 17-19 there is illustrated a curved compartmentforming member 438 which is composed of two opposed sidewalls 508 a and508 b that are interconnected by a curved J-shaped member 510 that formscompartment bottom 510 a and compartment top 510 b. Preferably, a wiper512 is suitably mounted to compartment member 510.

A plurality of compartment forming members 438 are mounted together infry wheel 410 to provide a plurality of adjacent peripheral foodcompartments 422-436 as illustrated in FIG. 13. As illustrated in FIG.13, the top of one J-shaped member 510 abuts the bottom of adjacentJ-shaped member 510. Thus, advantageously, a fastening member 514, whichcan be a rivet, for example, that secures wiper 512 to compartmentbottom 510 a of one curved J-shaped member 510 will also pass throughthe compartment top 510 b of the adjacent curved J-shaped member 510.Preferably, wiper 512 has a plurality of transversely extending grooves516 a-f that permit drainage of cooking oil therethrough as wiper 512exits the cooking oil in fry vat 406, for example.

Referring to FIG. 17, opposed sidewalls 508 a,b and curved J-shapedmember 510 are perforated to permit the flow of cooking oil therethroughthereby promoting good heat transfer between the cooking oil containedin fry vat 406 and food contained in one of compartments 422-436 whenimmersed in cooking oil. A suitable hole size is about 0.156 inchesspaced center-to-center about 0.250 inches. Wiper 512 also ensures thatclose contact is maintained between the interface of fry wheel follower502 and the top and bottom ends of each food compartment 422-436 whichin each case will be bounded by one of wipers 512. Any suitable materialcan be used for wiper 512 such as rubber or Teflon, for example.

As an alternative construction, compartments 422-436 could beconstructed from curved J-shaped members 510 without opposed sidewalls508 a and 508 b, in which case the compartment sidewalls could be formedfrom opposed circular disks 458 a and 458 b. In addition, it should beappreciated by one skilled in the art that any desired compartment shapecan be utilized in accordance with the invention as long as the food canbe loaded into the compartment, kept within the compartment duringimmersion in the cooking oil and which compartment shape discharges thefood from the fry wheel.

Referring to FIGS. 21 and 22, there are illustrated further aspects offry device 400. FIG. 21 is a sectional view along line 21-21 of FIG. 20.FIG. 21 illustrates the elements previously described and in additionshows the interface of adjacent fry vats 406 and 420 and in enlargedform in FIG. 22. Disposed between fry vats 406 and 420 is a bankingstrip 518 that bridges the gap between fry vats 406 and 420. Bankingstrip 518 can be in a shape as desired and in the illustrated embodimentis a generally inverted V-shaped strip that spans the gap between fryvats 406 and 420. Banking strip 518 prevents any material that isdischarged between fry wheels 410 and 412 from falling between fry vats406 and 420 and causing such material to fall into one of fry vats 406and 420.

Referring to FIGS. 23 and 24, there are illustrated alternateembodiments of a fry wheel for use in accordance with the invention. Itis to be understood that the fry wheel is capable of numerous changesand rearrangements, and the fry wheel, as well as other components andembodiments of the present invention, is not intended to be limited tothe specific embodiments described herein.

Referring to FIGS. 23 and 24, there are illustrated wire form wheels 479and 481. Each of wheels 479 and 481 has a rim 520 and 522, respectively,constructed of tubing, which can be smooth tubing. Such a wheel could bedriven by a friction wheel, if desired. In each of wheels 479 and 481 aplurality of individual tubular spokes 524 extend from each rim to acorresponding hub assembly 526. An axle 528 connects hubs 526 togetherin each of wheels 479 and 481. Wheel 479 includes a slotted member 530that bridges each pair of spokes 524. Each slotted member 530 includes acentrally disposed slot 532 and a pair of tabs 534 on either side ofslot 532. A plurality of fry baskets 536, one for each slotted member530 or pair of spokes 524 is mounted in a snap-lock relationship to eachslotted member 530. Fry baskets 536 have perforated sides and aperforated bottom and top and can be of a similar configuration aspreviously described with respect to fry wheel 410. Each basket 536 canhave a spring tab member 538 that interlocks with slotted member 530 tosecure fry basket 536 to fry wheel 479 resulting in a finished fry wheel481 as shown in FIG. 24. It is to be understood that the embodimentillustrated in FIGS. 23 and 24 is not limited to snap-in baskets andthat other baskets can be used with the wheel arrangement depicted inFIG. 23 with or without slotted members 530. For example, baskets couldbe welded or otherwise affixed to rim 520 and spokes 524. Each of frybaskets 536 includes perforations 540 on the sides, top and bottomthereof, such as previously described with respect to compartmentforming member 438.

Referring to FIG. 24, there is illustrated an alternative drivemechanism 535 to rotate fry wheel 481. Drive mechanism 535 includes amotor 537, a shaft 539 and drive rollers 541 and structure for supplyinga force in the direction of arrow FW. Drive rollers 541 are mounted onshaft 539 which can be rotated by motor 537 to cause rollers 541, eachaligned with one of rims 522, to rotate, thereby rotating fry wheel 481.A force FW is supplied in the direction of arrow FW to ensure thatrollers 541 impart a sufficient tractive force to cause rotation of frywheel 481. Force FW can be supplied by any suitable structure, includinga spring, a weight or an electromagnet, for example. For example, motor537, shaft 539 and rollers 541 could be mounted on a platform (notshown) that is moveable in the direction of arrow FW and a force couldbe applied to urge platform in the direction of arrow FW to ensureproper traction of rollers 541. Rollers 541 may be constructed of anysuitable material, including rubber, for example. Motor 537 can becontrolled by fry control 116, for example.

Fry wheel 410 can be rotated as desired so that food deposited in one ofcompartments 422-436 travels through and out of the cooking oil 454until that compartment reaches a discharge location. Thus, in theembodiment illustrated in FIGS. 13 and 20, the rotation is in aclockwise direction as indicated by arrow K in FIG. 13 and arrow K inFIG. 20. The rotation of fry wheel 410 can be either continuous orperiodic. In a periodic rotation, the rotation will typically beincremental, that is, the wheel is rotated to some degree and thenstops. Thereafter, after a set period of time, the wheel undergoesanother periodic rotation. This process continues as each fry basket isrotated through and out of the cooking oil vat and to the dischargelocation. Preferably, each periodic rotation consists of a rotation of360° divided by the number of compartments present in the fry wheel orsome fraction of that periodic rotation increment so that the positionof the wheel can be known without the use of sensors. However, the useof a sensor or sensors to be able to monitor wheel position can also beused either as the primary way of controlling wheel position or as abackup. Also, use of a sensor to determine wheel position allows use ofa standard AC or DC motor. Suitable control of wheel 410 can beaccomplished by fry control 116, for example.

In accordance with the present invention, a basket shaking simulationcan be achieved. Basket shaking simulation can be performed by arelatively slight back and forth rotation of the fry wheel, such as frywheel 410. Thus, the drive mechanism is activated to rotate the frywheel clockwise and counterclockwise through a relatively small degreeof angular rotation to simulate shaking of a fry basket during frying.The back and forth rotation can occur relatively rapidly and typicallythe degree of angular rotation will be in the range of from about 2 toabout 20 degrees. In addition, the periodic rotation in one directionmay be of a larger angle of rotation than the rotation in the otherdirection.

Preferably, the degree of rotation during simulated basket shaking willbe monitored, particularly where the rotation in one direction isgreater than the rotation in the other direction so that the position ofeach basket relative to the discharge location can be monitored by thecontrol system to ensure proper discharge of food from foodcompartments.

Referring to FIG. 64, there is illustrated in partially schematic viewfry device 400 along with portions of food dispensing device 200 andfood packaging device 600. As illustrated in FIG. 64 a hood system 546is provided. Hood system 538 includes a hood structure 548, a filter 542and a drip pan 544.

A suitable air blower (not shown) can be provided to cause air flow tomove within hood system 538 generally in the direction of arrows A1, A2and A3. Filter 542 thus filters particulate matter in air flow A1 thatpasses through filter 542. Drip pan 544 catches any matter that dripsfrom filter 542 that is located above drip pan 544. Preferably, hoodsystem 538 substantially completely encloses the area above fry device400 to reduce waste discharge into the operating environment ofautomated food processing system 100.

Food Packaging Device

Referring to the Figures generally, and in particular to FIGS. 1 and25-50, there is illustrated various embodiments of food packagingdevices and elements thereof in accordance with the invention.

In one embodiment, food packaging device 600 is illustrated or partiallyillustrated and elements useful in connection with food packaging device600 are illustrated in FIGS. 1 and 25-50. Food packaging device 600includes a cabinet 602 having a countertop surface 636. Food packagingdevice 600 can be advantageously constructed in modular form so that itcan be operated together with previously described food dispensingdevice 200 and fry device 400 and alternatively operated separately fromboth or either of those devices.

Food packaging device 600 in the illustrated embodiment includes a foodinlet chute 604, rotatable food dispensing member 606, food dispensingchute mechanism 608, automated container handling system 610,container-receiving receptacle 612, overflow food collection member 613,conveyor system 614, waste chute 615, food seasoning system 616 andraceway 620.

In the illustrated embodiment, food packaging device 600 includes acontainer storage device for containing cartons or containers of varioussizes. During operation of packaging device 600, the device selects acontainer of a desired size from container storage magazine 638, erectsthe container into an erected form that is unerected while contained instorage magazine 638 and then positions the erected container to receivefood dispensed from food dispensing chute mechanism 608. After receivingfood from food dispensing chute mechanism 608, automated containerhandling device 610 is capable of moving the filled or partially filledcontainer to container receiving receptacle 612 which is transported viaconveyor system 614 to a desired location for subsequent pickup of thecontainer by a human operator, for example.

In the embodiment illustrated in FIGS. 25-29, food packaging device 600includes food overflow collection member 613 to collect food dispensedby food dispensing chute mechanism 608 that is not deposited into acontainer. In the illustrated embodiment, overflow food collectiondevice 613 is a rotatable wheel as hereinafter described in detail.Overflow food collection member 613 functions to collect food dispensedby food dispensing chute mechanism 608 that is not received in acontainer and to recycle that food into food dispensing chute mechanism608 for subsequent dispensing to a container. This permits fooddispensed by food dispensing chute mechanism 608 but not deposited in acontainer to be promptly recycled to the dispensing chute in a first-in,first-out manner, so that overflow food is promptly recycled anddispensed to a container.

Referring to FIGS. 26-28, there is illustrated food packaging device 600in which inlet chute 604 is positioned to receive food, in this caseFrench fries, from food dispensing lanes 234, 236 and 238 of dispensingdevice 200, which food has been subsequently fried after dispensing infry wheels 410, 412 and 414 of fry device 400. After frying in any ofwheels 410, 412 and 414 of fry device 400, food dispensed therefromenters inlet chute 604, as illustrated in FIGS. 3 and 28, for example.In inlet chute 604 the food travels downwardly along chute 604 and intorotatable food dispensing member 606 in the direction of arrow M of FIG.28 and arrow E of FIG. 3. Inlet chute 604 can be configured as desiredand may be configured to accept the product from any one or all of frywheels 404, 410, 412 and 414. In FIGS. 25-27, a holding area 607receives product from fry wheel 404 for manual packaging. A manual orautomated diverter bar 605 can optionally be provided as shown in FIG.27 to divert French fries from device 600 to permit filling unsalted fryorders. Bar 605 can be moved between open and closed positions asindicated by arrow Z, such as by a cylinder (not shown).

Rotatable food dispensing member 606 in the illustrated embodiment is adispensing wheel that is mounted for rotation in dispensing device 600.Dispensing member 606 has a plurality of food containing compartments640 that are arrayed around the periphery of rotatable food dispensingmember 606. Each of compartments 640 is divided from another compartmentby a compartment wall 642. Preferably, each compartment wall 642 is notnormal to peripheral edge 644 of rotatable food dispensing member 606but at a slight angle such as, for example, as illustrated in FIG. 29and FIG. 61.

Wheel 606 includes a pair of opposed rim portions 646 a and 646 b and acircular ring portion 648 that interconnects opposed rims 646 a and 646b. Circular ring 648 is disposed close to the peripheral edges of rims646 a and 646 b and defines peripheral edge 644. Preferably, circularring 648 is constructed of a perforated metal material so that circularrims 646 a and 646 b have perforations 650 therethrough as illustratedin FIG. 28, for example.

In accordance with the illustrated embodiment, rotatable dispensingmember 606 is configured as a rotatable wheel although other embodimentsare within the scope of the invention. For example, a rotatabledispensing member in accordance with the invention could be a portion ofa wheel, such as a semicircular or other configuration.

In the illustrated embodiment, rotatable food dispensing member 606 isrotated by a drive mechanism 652. Drive mechanism 652 consists of amotor 654 that drives a drive wheel 656. Drive mechanism 652 iscontrolled by a suitable control mechanism to cause rotation of drivewheel 656 and hence rotatable food dispensing member 606 in a desireddirection and at a desired rate of speed. Drive wheel 656 can be apressure roller or alternatively can be a drive wheel like or similar todrive wheel 468 previously described with respect to FIG. 14. Rotatablefood dispensing member 606 can be driven via one or both of opposed rims646 a and 646 b. Alternatively, and as illustrated in FIG. 28, rotatablefood dispensing member 606 is driven through a drive rim 658. Each ofrotatable food dispensing members 606 and overflow food collectionmember 613 rest on spaced apart rollers 660 and 662. Each of rollers 660and 662 are constructed to bear the weight of rotatable food dispensingmember 606 and overflow food collection member 613 and have a lengththat spans both. Alternatively, separate rollers or some othersupporting structure could be used to support rotatable food dispensingmember 606 and overflow food collection member 613. An inner curvedfender or baffle member 664 as illustrated in FIG. 29 is provided toensure that food contained in compartment 640 of rotatable fooddispensing member 606 does not prematurely discharge. Preferably, fender664 follows the inner curvature of rotatable food dispensing member 606and has perforations 666, which can be similar to perforations 650 ofcircular ring 648. Fender 664 is suitably mounted so that it isstationary relative to rotatable food dispensing member 606. A similarfender could also be provided for overflow food collection member 613,if desired (not shown).

Referring to FIG. 61, there is illustrated an elevation view of aportion of rotatable food dispensing member 606 which is typicallyrotated in the direction of arrow Y when viewed from the front of foodpackaging device 600. Fender 664 prevents food, in this case Frenchfries FF, from falling from compartments 640 prematurely.

Overflow food collection member 613 is configured to collect fooddeposited from food dispensing chute mechanism 608 that is intended tobe received into container 611 when held in position to receive foodfrom food dispensing chute mechanism 608 which food does not stay incontainer 611. This can occur since oftentimes it is desirable tooverfill container 611 so that food is mounded up above the top surfaceof container 611. Also, for food such as French fries, such foodmaterial fills container 611 somewhat randomly and it is typical forFrench fries to dangle over the sides of container 611. In theillustrated embodiment, overflow food collection member 613 isconfigured in a manner similar to rotatable food dispensing member 606previously described. Thus, food collection member 613 includes opposedrims 668 a and 668 b and circular ring 670 having perforations 672.Circular ring 670 connects opposed rims 668 a and 668 b in a manner aspreviously described with respect to member 606. In addition, foodcollection member 613 has a plurality of inner compartments that aresimilar in construction to compartment 640 previously described withrespect to member 606. Member 613 also has a drive rim 674 and is drivenby a drive mechanism 676 that is similar to drive mechanism 652previously described including a drive wheel 676′ and a motor 678. Drivemechanism 676 is configured to rotate food collection member 613 ineither a clockwise or counterclockwise direction as hereinafterdescribed in more detail.

Food collection member 613 also includes a plurality of compartmentwalls 680 that are similar to compartment walls 642 previously describedwith respect to rotatable food dispensing member 606, providing aplurality of food containing compartments 682.

Each of food dispensing member 606 and food collection member 613 hasbottom portions that are disposed through an opening 684 in countertopsurface 636 of cabinet 602. The construction of the illustratedembodiment permits food dispensing member 606 and overflow foodcollection member 613 to be readily removed from food packaging device600 such as for cleaning and/or repair.

A heating system as described can be incorporated into food packagingdevice 600 to supply heat to food contained therein. For example, aheating system 681 can be provided, which is illustrated in FIG. 29.Heating system 681 includes a heating device 683 having a heatingelement 685, located above dispenser 606 as desired. Heating devices 687and 689 may also be included within dispenser 606 and/or 613 as desired.The heating devices may comprise radiant heaters and can be ceramicheaters, for example. Any suitable type of heating device or system canbe used in accordance with the invention. Heating system 681 can becontrolled by packaging control 118, for example. In addition, a heatingdevice can be provided to direct heat to food container pick up location622, if desired to keep food contained thereat warm.

Referring to FIGS. 1, 3, 25-26, 28-29 and 43-44, various aspects of theconfiguration and operation of food dispensing chute mechanism 608 areillustrated and will be described. Food dispensing chute mechanism 608includes an upper chute 686, a lower chute 688, a chute support member690, a connecting link 692, a stop member 694, a rotatable link 696connecting stop member 694 to chute support member 690, a rotatable link698 connecting upper chute 686 to support member 690, a cylinder 700 foroperating food dispensing chute mechanism 608, a load cell 702 forweighing the contents of food contained in food dispensing chutemechanism 608 and a rotatable link 704 connecting cylinder rod 706 toupper chute 686.

Upper chute 686 preferably and as illustrated in the referenced figures,forms part of food dispensing chute mechanism 608, and has an inletlocation 708 for receiving food dispensed from rotatable food dispensingmember 606 and a discharge location 710 for dispensing food contained infood dispensing chute mechanism 608 and into a container, such ascontainer 611 as illustrated in FIG. 43, for example.

Upper chute 686 of food dispensing chute mechanism 608 is positioned toreceive pieces of food from a discharge location 712 of rotatable fooddispensing member 606. Upper chute 686 has a food holding area 714 forholding food received from rotatable food dispensing member 606. Aweighing device is associated with food dispensing chute mechanism 608so that the amount of food contained therein, such as in food holdingarea 714, can be determined. Any suitable device can be utilized todetermine the amount of food contained in food dispensing chutemechanism 608. In the illustrated embodiment, a load cell 702 isprovided to determine the weight of food contained in food dispensingchute mechanism 608 and is illustrated schematically in FIGS. 43 and 44,for example.

FIG. 44 illustrates food dispensing chute mechanism 608 in the upperposition ready to receive food from rotatable food dispensing member606. In that configuration, cylinder 700 is retracted and upper chute686 is generally horizontal. This configuration allows a quantity offood to be dispensed into upper chute 686 and into food holding area 714without being dispensed therefrom. When a sufficient quantity of food isdeposited in upper chute 686, such as French fries FF, as determined byload cell 702 which communicates with the control system of foodpackaging device 600, the food contained therein is ready to bedispensed. Typically, the amount of food contained in chute 686 will besufficient to adequately fill container 611. Since container 611 is of aknown size, rotatable food dispensing member 606 can be operated tosupply food to chute 686 until a desired quantity is contained thereinfor dispensing to container 611.

To dispense food from food dispensing chute mechanism 608, cylinder 700is activated to extend cylinder rod 706 upwardly thereby causing upperchute 686 to drop. Since lower chute 688 is connected to upper chute 686via connecting link 692, lower chute 688 also drops to the dischargeposition as illustrated in FIG. 43 which movement is indicated by arrowS. Stop 694 which is connected to lower chute 688 and pivotally mountedvia rotatable link 696 to chute support member 690, engages chutesupport member 690 as illustrated in FIG. 43 and prevents furtherdownward movement of upper chute 686 and lower chute 688. In addition,stop member 694 engaging chute support member 690 defines the lowermostposition of upper chute 686 and lower chute 688 which is also thedispensing position of food dispensing chute mechanism 608, asillustrated in FIG. 43. This position also provides discharge location710 of dispensing chute mechanism 608.

Referring to FIGS. 25-28, there is illustrated container storagemagazine 638, which can form part of food packaging device 600.Container storage magazine 638 is configured to store a plurality ofdifferent sized food containers in an unerected form. Typically,container storage magazine 638 will be configured to hold a variety ofdifferent sized containers. In the illustrated embodiment, containerstorage magazine 638 can contain four different sizes of French frycontainers or cartons. Container storage magazine 638 includes a base716 that is suitably mounted with mounting structure 718 to cabinet 602.Preferably, mounting structure 718 permits container storage magazine638 to be readily removed to permit access to rotatable food dispensingmember 606 and overflow food collection member 613.

Base 716 typically can be in the form of a base plate and includes fourapertures 720, 722, 724 and 726, each of said apertures corresponding tothe profile of a different size collapsed carton. Apertures 720, 722,724 and 726 are dimensioned to be able to retain a stack of cartons in acollapsed or unerected condition as illustrated in FIG. 25 in which aplurality of unerected cartons 728 are stacked therein.

Each aperture 720, 722, 724 and 726 and base 716 has associatedtherewith a plurality of guide members 730-760. In the illustratedembodiment, guides 730-760 are in the form of post or tubular-typemembers. Each set of four guide members is associated with a specificone of apertures 720, 722, 724 and 726 to define and permit stacking ofa plurality of unerected French fry cartons or containers that generallycorrespond in size to the size of apertures 720, 722, 724 and 726,respectively. It is to be understood that other arrangements to define acontainer stack can be utilized in accordance with the invention. Forexample, in place of guides 730-760 other structure could be utilized,such as upstanding walls or partial walls or other types of guides.

Container storage magazine 638 may also include a suitable removablecover (not shown) to enclose base 716 and the volume defined overapertures 720-726 by guides 730-760.

Container storage magazine 638 is preferably positioned to permit readyaccess to the bottom of each container stack through the bottom of eachof apertures 720-726 by automated container handling system 610, whichis hereinafter described in detail.

Food packaging device 600 includes automated container handling system610. Automated container handling system 610 is capable of retrieving anunerected container through any of apertures 720, 722, 724 and 726 ofunerected container storage magazine 638, erecting the unerected carton,holding the erected carton in position at discharge location 710 of fooddispensing chute mechanism 608 and depositing the filled container ontoconveyor system 614, which conveyor system 614 subsequently transportsthe filled container to a desired location.

Referring to FIGS. 1, 25, 27-28 and 30-44, there is illustratedautomated container handling system 610 and elements and featuresthereof. Automated container handling system 610 includes a containerretrieving and grasping device 762, a container grasping device 764 anda container bottom urging device 766.

Automated container handling system 610 is controlled by a suitablecontrol system for food packaging device 600.

Container retrieving and grasping device 762 and portions thereof arebest illustrated in FIGS. 30-39. Container retrieving and graspingdevice 762 includes a mast 768, which is mounted to a carriage system770, a moveable rack member 772, a pinion 774, a frame 776, a containergrasping member 778 and a linkage assembly 780.

Mast 768 is carried by carriage system 770 which carriage system 770allows for lateral translation of mast 768 and the components associatedtherewith, including moveable rack member 772, pinion 774, frame 776,container grasping member 778 and linkage assembly 780. Carriage system770 includes a guide member 782, a worm gear 784, a drive mechanism 786and a carriage follower 788. Carriage follower 788 supports a verticaltranslation mechanism 790 that, in turn, carries mast 768.

Carriage guide 782 is an elongated guide that defines the lateraltranslation movement direction of carriage follower 788 and is securedwithin cabinet 602. Worm gear 784 is disposed parallel to carriage guide782 and when rotated moves carriage follower 788 along carriage guide782.

Worm gear 784 is driven by drive mechanism 786 which can include a drivemotor 792, a drive gear or pulley 794 and a driven gear or pulley 796.Where drive and driven pulleys are used, typically a belt 798 willimpart rotation from one pulley to another.

Drive motor 792 causes worm gear 784 which is mounted for rotation andwhich is rotated by rotation of driven pulley or gear 796 in eitherdirection. Drive motor 792 can be an AC or DC motor or a stepper orservo motor as desired. Suitable sensors can be employed (not shown) todetermine the position of carriage follower 788 which determines thelateral position of container grasping member 778.

Carriage follower 788 is composed of a frame 800 having a guide apertureor slot 802 in which carriage guide 782 is disposed and a threadedaperture or slot 804 in which elongated worm gear 784 is disposed toimpart lateral motion to carriage follower 788 by rotation of worm gear784. Thus, carriage system 770 provides lateral movement in thedirection of arrows Q as shown in FIG. 39. In this manner, carriagefollower and thus mast 768 can be laterally translated as desired.

A suitable opening 806 is located in countertop surface 636 of cabinet602 to permit mast 768 to extend therethrough.

Mast 768 can be raised and lowered in a vertical direction as indicatedby arrow V in FIG. 39.

Mast 768 can be vertically raised and lowered in the directionsindicated by arrow V in FIG. 39 by operation of a drive mechanism 810that forms part of vertical translation mechanism 790. Verticaltranslation mechanism 790 is a vertically extending carriage systemsimilar to that described with respect to carriage system 770 andincludes a drive mechanism 810 which is composed of a motor 812 which iscarried by carriage follower 788, a vertically disposed carriage guide814, a vertically disposed worm gear 816 which is driven in a suitablemanner by motor 812 such as previously described with respect to drivemechanism 786 of carriage system 770, which can be controlled in asimilar manner. Vertical translation mechanism 790 also includes avertical carriage follower 818 having a threaded aperture or slot and aguide aperture or slot (not shown) which vertical carriage follower 818is secured to mast 768.

Mast 768 has mounted thereto frame 776, typically at an upper endthereof. Linkage assembly 780 is secured to frame 776 as well as pinion774 and moveable rack member 772.

Moveable rack member 772 includes a frame 820 having a guide slot 822vertically disposed therein and a rack 824 which meshes with pinion 774.Moveable rack member 772 may also include extra mass in the form of aweight block 826 to help urge moveable rack member downwardly when notrestrained.

A pair of guides 828 and 830 are rigidly secured to frame 776 and aredisposed within slot 822 of moveable rack 772. A spring 832 can beconnected between an upper end of moveable rack member 772 and guide 828or 830 to urge moveable rack member 772 to a lower position asillustrated in FIG. 30 compared with the upper position as illustratedin FIGS. 34-37.

In a preferred embodiment, moveable rack member 772 includes a stop 834which stop can be vertically adjustable. While stop 834 is located atthe bottom of moveable rack member 772 it is to be understood that astop could be provided at another location provided that a suitableengaging surface at a proper location is provided.

Mounted to frame 776 is an axle 836 that is mounted for rotationrelative to frame 776. Axle 836 has pinion gear 774 rigidly securedthereto as well as one end 838 of linkage 780. The other end 840′ oflinkage 780 is securely mounted to frame 776 as illustrated in FIGS.30-37, for example.

Linkage 780 which carries container grasping member 778 is composed of aplurality of links so that container grasping member 778 is moveablefrom a horizontal position as illustrated in FIGS. 30-32 to a verticalposition as illustrated in FIGS. 34-37. When container grasping member778 is in the horizontal position it is utilized to grasp and retrieve adesired size of container from one of the apertures 720, 722, 724 and726 from container storage magazine 638. For this purpose, containergrasping member 778 includes a suction cup device 840 which includes atleast one suction cup 842 and in the illustrated embodiment two suctioncups 842 and 844 arrayed in substantially the same plane for grasping acontainer having a surface to be grasped by both suction cups 842 and844 in the same plane. Suction cup device 840 also includes a vacuumsource 846, a release valve 848 and a suitable vacuum line 850 whichconnects suction cups 842 and 844 to vacuum source 846, as illustratedin FIG. 30, for example. In operation, when suction cups 842 and/or 844engage a container or other member to be grasped, vacuum source 846 isactivated to supply vacuum to suction cups 842 and 844, such as to graspand retain a container from one of apertures 720, 722, 724 and 726 ofcontainer storage magazine 638.

Linkage assembly 780 includes, in the illustrated embodiment, a firstlink 852, a second link 854 and third link 856.

First link 852 is rigidly secure to axle 836 and pinion 774. First link852 is configured in an L-shape with the end of first link 852 oppositethe portion connected to axle 836 pivotally connected to second link 854having one end being pivotally connected to first link 852 via pivotconnection 858.

Second link 854 is connected to third link 856 via a universal jointconnection 860 a location spaced apart from pivot connection 858 asillustrated in, for example, FIGS. 30-37. Section cups 842 and 844 aremounted to second link 854. An offset member 862 which depends fromsecond link 854 provides a desired offset for universal joint connection860 which connects second link 854 to third link 856.

Third link 856 is, in turn, connected to frame 776 via a universal jointconnection 864 which is at a distance removed from universal jointconnection 860 which connects third link 856 to second link 854. Anoffset member assembly 866 is rigidly secured to frame 776 and includesan angled block 868 and an offset extension 870 to provide the desiredangled and clearance for universal joint 864 and third link 856.

In operation, when moveable rack member 772 is moved relative to mast768, such as when stop 834 contacts a surface, such as in theillustrated embodiment, countertop surface 636 as illustrated in FIG.36, continued downward vertical movement of mast 768 causes rack member772 to move upwardly relative to mast 768. This causes rotation ofpinion 774 which meshes with rack 824 mounted to rack member 772.Rotation of pinion 774 in a counter-clockwise direction in FIG. 30causes rotation of first link 852. Such rotation causes downwardmovement of that portion of first link 852 that is pivotally connectedto second link 854 via pivot connection 858. Such movement, in turn,causes second link 854 to pivot upwardly about pivot connection 858 in aclockwise direction as viewed in FIG. 30 to cause suction cups 842 and844 to move to a vertically oriented position as depicted in FIGS. 34-37from the horizontally oriented position depicted in FIGS. 30-33. Inaddition, such movement of first link 852 causes movement in rotation ofthird link 856 and universal joint connection 860 and 864 to theposition indicated in FIGS. 34-37. When container grasping member 778 isin the position indicated in FIGS. 34-37, an unerected container held bysuction cups 842 and/or 844 will be vertically oriented when suctioncups 842 and/or 844 are attached to the container sidewall, asillustrated in FIG. 40, for example.

In a typical operation, container retrieving and grasping device 762will be operated to position suction cups 842 and 844 below a containerto be selected from container storage magazine 638. Mast 768 will beraised by operation of vertical translation mechanism 790 to a desiredheight so that suction cups 842 and 844 engage a container contained atthe bottom of container storage magazine 638. Vacuum source 846 isactivated and mast 768 can be lowered to remove a container from adesired one of apertures 720, 722, 724 and 726 of container storagemagazine 638. Carriage system 770 can be activated to move containerretrieving and grasping device 762 laterally to a desired location. Suchlateral movement can be controlled by properly positioned sensors 872,874, 876, 878 and 880, for example. For example, sensor 872 can definethe position to retrieve a container from aperture 720, sensor 876 toretrieve a container from aperture 722, sensor 878 to retrieve acontainer from aperture 724 and sensor 880 to retrieve from aperture726. Sensor 874 can be positioned to define the proper location ofcontainer grasping member 778 to erect the container that has beenretrieved from one of apertures 720, 722, 724 or 726 of containerstorage magazine 638, as hereafter described. After erecting thecontainer, the vacuum applied to suction cups 842 and 844 is released byoperation of release valve 848 which permits suction cups 842 and 844 todisengage and release the container that had been grasped. Mast 768 canthen be raised causing stop 834 to be removed from countertop surface636 and by action of weight 826 and operationally spring 832, causingrack member 772 to move downwardly relative to mast 768 thereby rotatingpinion gear 774 clockwise relative to the position shown in FIG. 34,thereby moving linkage assembly 780 to cause movement of containergrasping member 778 from the position illustrated in FIGS. 34-37 to theposition indicated in FIGS. 30-33, where container grasping member 778is in position to retrieve a desired carton from container storagemagazine 638 in a manner previously described, which includes lateraltranslation of container grasping member 778 by carriage system 770.

It is to be understood that any suitable automated device or system forretrieving, grasping and moving a container to a desired location asdesired herein can be utilized in accordance with various aspects of thepresent invention. Thus, various aspects of the present invention arenot limited by the particular embodiment of container retrieving andgrasping device 762 and components thereof described herein. Forexample, an automated or robotic arm could be utilized to select, graspand retrieve erected or unerected containers from a source as desiredand then erect the carton or container in a suitable manner, followed byholding the erected container at dispensing location 710 and afterfilling placing the filled container, such as container 611 on to asuitable conveyor to move the filled container to a desired location.

Container grasping device 764 of container retrieving and graspingdevice 762 will now be described, and in particular with reference toFIGS. 38 and 40-44.

Container grasping device 764 includes a rotatable and verticallytranslatable mast 884. Mast 884 can be rotated as illustrated by arrow Pin FIG. 38 and vertically translated up and down as indicated by arrow 0also in FIG. 38. Mast 884 is connected to a shaft 886 via a slot and keyarrangement between mast 884 and shaft 886 permitting mast 884 to berotated by shaft 886 which, in turn, can be rotated by a step or motor890 or other suitable motor or device to rotate shaft 886 a desireddegree. Motor 890 drives a drive pulley or gear 892 which, in turn,drives a driven pulley or gear 894. In the case where pulleys areutilized, a belt 896 is used to transmit rotation from pulley 892 topulley 894. Motor 890 can be a stepper router or a servo motor asdesired. Alternatively, an AC or DC motor can be utilized provided thata suitable control is provided so that the orientation of mast 884 canbe determined. A carriage system 898 is utilized to provide the desiredvertical movement of mast 884 in up and down directions. Carriage system898 is similar to carriage system 770 previously described and includesa carriage guide 900, a worm gear 902, a carriage follower 904, a drivemechanism 906 which includes a motor 908 (which can be a servo motor oran AC or DC motor) suitably controlled to drive or gear 902. Carriagefollower 904 includes a threaded aperture or slot 910 which communicateswith worm gear 902 and a threaded aperture or slot 912 in which guide900 is disposed. A carriage follower interface 914 connects carriagefollower 904 to mast 884 and permits shaft 886 to rotate with respect tocarriage follower interface 914. Thus, in operation, rotation of motor908 rotates worm gear 902 thereby translating carriage follower 904 upor down depending on the direction of rotation. A suitable sensor (notshown) can be employed to determine the height of mast 884 for controlby control system 118 for packaging device 600.

Suitable mounting structure 916 is provided to mount container graspingdevice 764 to a desired location, such as within cabinet 602. A slot andkey arrangement between shaft 886 and mast 884 permits 884 mast to bevertically translated either up or down while shaft 886 is rotated.

Mounted on the upper end of mast 884 is a suction device 918 whichincludes a suction cup 920, a source of vacuum (not shown) for suctioncup 920 and a release valve (not shown) for releasing the vacuum tosuction cup 920. Vacuum can be supplied from within mast 884 to suctioncup 920 by a suitable connection as is known in the art.

Container bottom urging device 766 consists of a mast 922 that isvertically translatable up and down by suitable apparatus (not shown).Such apparatus can be similar to vertical translation mechanism 790previously described with respect to container retrieving and graspingdevice 762. Preferably, mast 922 has a blunt end 924.

In operation, container retrieving and grasping device 762 selects anappropriately sized container from container storage magazine 638 asdirected by the control system for food packaging device 600. Afterretrieving the container, which in this case is container 611, containerretrieving and grasping device 762 moves container 611 to a position asindicated in FIG. 40 against suction cup 920 so that opposed sidewallsof container 611 are grasped by suction cups 840 and 842 of containergrasping member 778.

Next, as shown in FIG. 41, container grasping member 778 is movedlaterally away from suction cup 920 while maintaining suction on suctioncups 840, 842 and 920. Container 611 is partially erected as shown inFIG. 41 with bottom 611 b depending downwardly slightly. Containerbottom urging device 766 is then activated as illustrated in FIG. 42 tourge bottom 611 b of container 611 upwardly into the fully erectedposition. Container grasping member 778 is released and retracted fromcontainer 611 and returned to a horizontal up position to select anotherunerected container for erection.

Next, mast 884 is rotated approximately 90° by motor 890 to placecontainer 611 in discharge position 710 of food dispensing chutemechanism 608. Food dispensing chute mechanism 608 is then lowered todischarge French fries FF therefrom and into container 611. Any Frenchfries that are not received into container 611 are collected by overflowfood collection member 613 which is then rotated clockwise in thedirection of arrow X as shown in FIG. 41 to recycle such French fries toupper chute 686 for subsequent delivery to another container. After theFrench fries are dispensed from food dispensing chute mechanism 608,cylinder 700 is retracted placing food dispensing chute mechanism 608 inthe upper position as shown in FIG. 44. Mast 884 can then be rotatedback and forth slightly (e.g., such as 20 to 200, for example) tosimulate shaking to dislodge any loose French fries or dangling Frenchfries in container 611 and any dislodged French fries will then fallinto overflow food collection member 613 for subsequent recycling. Mast884 can also be raised and lowered slightly and relatively quicklyeither before, during or after the angular rotation to further simulateshaking. Thereafter, mast 884 is rotated approximately 180° untilcontainer 611 is directly over container-receiving receptacle 612 asindicated by T in FIG. 44. Mast 884 is then lowered by operation ofcarriage system 898 until the bottom of container 611 rests incontainer-receiving receptacle 612. Then, the vacuum supplied to suctioncup 920 is released and suction cup 920 releases from container 611.Mast 884 can then be rotated 90° so that it is in position to receiveanother container to be erected.

Container-receiving receptacle 612 is then transported via conveyorsystem 614 which will now be described in detail.

Conveyor system 614 and portions or elements thereof are illustrated invarious figures including FIGS. 1, 25-29 and 45-50.

Conveyor 614 includes, in the illustrated embodiment, raceway 620 whichcan be formed along the surface of countertop 636 or on some othersurface as desired. Raceway 620 is preferably in the form of acontinuous loop raceway and is defined by spaced apart guides 620 a and620 b mounted to countertop 636 to guide receptacles 612. Conveyorsystem 614 includes one or more and typically a plurality ofcontainer-receiving receptacles 612 which are illustrated in detail inFIGS. 46-50. Gate structure 634 of conveyor system 614 includes a firstgate 926 and second gate 928. First gate 926 is moveable and typicallysecond gate 928 can be stationary as hereinafter described.

Conveyor system 614 also includes structure for causing movement ofcontainer-receiving receptacle 612. In the illustrated embodiment,container-receiving receptacles 612 are moved via an endless loop 930that can be located beneath countertop 636. Endless loop 930 carries aplurality of magnets 932 as illustrated in FIGS. 45 and 49, for example.Magnets 932 are spaced along endless loop 930. Endless loop 930 maycomprise a chain or other suitable structure that can be driven by adrive system that includes sprockets 934, 936, 938 and 940. One ofsprockets 934, 936, 938 and 940 can be a driven sprocket.

Any suitable endless loop 930 can be utilized such as a belt or a chain.Pulleys could be used in place of sprockets 934-940. The route ofendless loop 930 follows the route of raceway 620.

Container-receiving receptacle 612 typically includes a base 942 and acontainer-receiving well 944 located over base 942. Base 942 includes anenclosed compartment 946 which can be conveniently accessed by a baseplate 948 located along the bottom of base 942 that is fastened to base942 by suitable fasteners 950. Contained within enclosed compartment 946is a magnet 952.

Container-receiving receptacle 612 follows the movement of magnet 932due to magnetic attraction between magnets 932 and 952 thereby causingmovement of container-receiving receptacle 612 along raceway 620.

Enclosed compartment 946 is dimensioned to permit magnet 952 to be freeto rotate therein allowing container-receiving receptacle 612 to bereadily guided by rails 954 and 956 that are raised above countertop636.

Movable gate 926 prevents movement of container-receiving receptacle 612located thereat as illustrated in FIG. 45. This ensures thatcontainer-receiving receptacle 612 is in position to receive a loadedcontainer of French fries, such as container 611 from container graspingdevice 764. After a filled container is placed on container-receivingreceptacle 612 adjacent moveable gate 926, gate 926 is automaticallyremoved by a suitable mechanism (not shown) to permitcontainer-receiving receptacle 612 thereat to be moved by conveyorsystem 614 until French fry container 611 contained therein contactsgate 928 or receptacle 612 contacts another receptacle that is locatedat pick up area 622 as shown in FIG. 45. Once container 611 is movedfrom receptacle 612 b, receptacle 612 b is then free to move alongraceway 620 and passes underneath second gate 928, which can be astationary gate. Alternatively, second gate 928 could be a moveable gateand could be located at a level that directly prevents movement ofreceptacle 612 b. After receptacle 612 b passes underneath second gate928, receptacle 612 a is moved into the position formerly occupied byreceptacle 612 b provided that receptacle 612 a has a French frycontainer thereon which would then cause receptacle 612 a to be stoppedat gate 928. Similarly, when that container is removed from receptacle612 a, receptacle 612 a would then be free to pass underneath gate 928and around that portion of raceway 620 until encountering gate 926 oranother receptacle that is stopped by gate 926.

Referring to FIGS. 51-60, there is illustrated various views of Frenchfry cartons that are useful in accordance with the present invention.The French fry cartons depicted in FIGS. 51-60 are particularly suitablefor use in conjunction with the present invention since the cartonsreadily stand upright without assistance and can be erected by automatedcontainer handling system 610, previously described.

FIG. 51 illustrates a front elevation view of a carton 1012 that isparticularly suitable for containing French fries, for example. Carton1012 is illustrated in FIG. 51 in an erected or opened position andincludes a pair of opposed curved sidewalls 1014 and 1016 and a bottompanel 1018.

Carton 1012 can be stacked in a collapsed configuration and stored in asuitable magazine, such as container storage magazine 638 as previouslydescribed. When in a collapsed position, carton 1012 is particularlysuited to being opened or erected by pulling sidewalls 1014 and 1016apart and urging bottom panel 1018 upwardly, as described with respectto the erection or opening of container 611 by automated containerhandling system 610. Container or carton 611 is of a design that issimilar to carton 1012.

Carton 1012 also includes two supporting legs 1020, 1022 that extenddownwardly from the lower portions of the overlapping edge portions ofsidewall 1014 indicated by reference numerals 1014 a and 1014 b in FIG.59 and FIG. 53.

Carton 1012 is capable of standing on its own because of legs 1020 and1022 that extend below bottom panel 1018 when carton 1012 is open orerected.

Carton 1012 can be constructed from a single blank of paperboard whichis illustrated in FIG. 59. When constructed, sidewall edge portions 1014a and 1014 b form flaps that are glued to the edges of sidewall 1016 asindicated in FIG. 54, for example.

Bottom panel 1018 is specially configured to facilitate opening orerection of carton 1012 by an automated carton handling device such asautomated container handling system 610, previously described in detail.Bottom panel 1018 includes intersecting lines 1024 and 1026.Intersecting lines 1024 and 1026 intersect at a generally centrallocation of bottom panel 1014, which panel is generally oval even thoughit may incorporate straight edges 1028 and 1030, for example.Intersecting lines 1024 and 1026 may be fold lines, lines of weakening,score lines or even perforations. All such structures are referred toherein with respect to intersecting lines 1024 and 1026 of bottom panel1018 only as “fold lines.” Typically, the intersection of fold lines1024 and 1026 form an angle in the range of from about 60° and about120°. In one embodiment, the intersecting bottom panel fold lines areoriented such that one of said lines (fold line 1024 in FIG. 59) isnormal or at least generally normal to curved sidewalls 1014 and 1016.In such embodiment, the other of the intersecting fold lines (in thiscase fold line 1026) is at least generally parallel to curved sidewalls1014 and 1016.

Preferably, fold line 1024 extends from sidewall 1014 to sidewall 1016.

As previously mentioned, carton 1012 is foldable to a collapsed positionwith sidewalls 1014 and 1016 being planar and in contacting overlyingrelation to each other with bottom panel 1018 being divided into twooverlying panels 1018 a and 1018 b by intersecting fold line 1026.

Preferably, bottom panel 1018 includes two additional fold lines 1032and 1034 on either side of fold line 1024 that extends from one cartonsidewall to the other, in this case from sidewall 1014 to sidewall 1016.Secondary fold lines 1032 and 1034 further facilitate the opening orerection of container 1012 with an automated device such as automatedcontainer handling system 610.

FIG. 58 illustrates a carton 1036 that is similar in construction tocarton 1012 previously described except that carton 1036 is of adifferent size. Preferably, carton 1012 is configured such that thewidth of the base is relatively narrow and the sidewalls 1014 and 1016flare outwardly so that container 1012 is substantially wider at the top(from about 1.6 to 2 or more times the base width). This allowsrelatively large and tall containers to be placed in an automobile cupholder CH as depicted in FIG. 56.

Referring to FIG. 2, there is illustrated an alternate embodiment of anautomated food processing system 101 in accordance with the invention.Automated food processing system 101 includes a food dispensing device201 which is similar to food dispensing 200, previously brieflydescribed, where like reference numerals represent like elements. Fooddispensing device 201 includes fewer uncooked bulk food dispensingcontainers 204 and additional magazine food dispensers that are similarto magazine food dispenser 206, previously referred to. Otherwise,dispensing device 201 is similar to dispensing device 200 previouslydescribed.

Automated food processing system 101 also includes fry device 400 whichhas been described.

One primary distinction between automated food processing system 100 andautomated food processing system 101 is that automated food processingsystem 101 does not include an automated packaging device such asautomated packaging device 600. In place of food packaging device 600, afood storage device 635 is provided. Food storage device 635 allows foodcooked by food frying device 400 to be stored in a heated environmentfor subsequent manual processing. As configured in FIG. 2, food storagedevice 635 includes separate product receiving receptacles 637, 639, 641and 643. Each receptacle 637, 639, 641 and 643 is dedicated to receivingfood from a respective one of fry wheels 410, 412, 414 and 404,respectively. In addition, each receptacle 637-643 can have placedtherein a suitable container to receive food, such as handled trays 645,647, 649 and 651.

As illustrated in FIG. 2, a food item F is being discharged from frywheel 414 down a chute 653 and into handled tray 649 contained withinheated receptacle 641. Food item F can be stored therein for a period oftime until it is ready for subsequent processing.

Referring to FIGS. 62 and 63, there is illustrated heated receptacle 643in a cross-sectional view and FIG. 63 is a cross-sectional view takenalong line 63-63 of FIG. 62 showing the entire width of receptacle 643.

As illustrated in FIGS. 62 and 63, heated receptacle 643 is a heatedwell having a heating element that heats sidewalls 962, 964, 966 and 968as well as bottom 970 of heated receptacle 643. Heating element 960 isin close proximity to walls 962, 964, 966 and 968 as well as bottom 970.Heating element 960 may be composed of a single heating element ormultiple heating elements as desired. Suitable controls may be providedto adjust the temperature of walls 962-968 as well as bottom 970 ofheated receptacle 643. In addition, suitable insulation 972 can becontained within the cavity that is defined by cabinet 974 of foodstorage device 635, which is partially shown in FIGS. 62 and 63.

Preferably, handled trays 645-651, such as handled tray 651 depicted inFIGS. 62 and 63 are dimensioned such that they are in close proximity towalls 962-968 and bottom 970 when placed in heated receptacle 643.

Food packaging device 600 may optionally include food seasoning device616, which is illustrated in detail in FIGS. 65-68. Food seasoningdevice 616 includes a hopper 972, a metering wheel 974, a wheel drivesystem 976, a dispensing tube 978 and a dispersion head 618.

Hopper 972 is configured to hold a desired bulk quantity of a seasoningmaterial, such as salt S. Bulk hopper 972 includes a lid 982 that can beremoved to replenish the supply of salt S contained therein. Hopper 972can have a bottom with inwardly extending sidewalls 984 to facilitatethe dispensing of material from bottom 986 of hopper 972 which mayinclude a dispensing tube 988.

Metering wheel 974 is located beneath bottom 986 and dispensing tube 988to receive a charge of salt or other seasoning therefrom. Metering wheel974 includes a cavity 990 for receiving a charge of salt from dispensingtube 988.

Metering wheel 974 is rotatably mounted in a housing 992 and can berotated about the longitudinal axis of metering wheel 974 to causecavity 990 to be directed downwardly which thereby causes the seasoningor salt contained in cavity 990 to fall by gravity therefrom.

Metering wheel 974 is suitably rotated by wheel drive system 976. Wheeldrive system 976 can be controlled by a suitable electronic controlsystem that can form part of the food packaging device 600. Typically,in operation, when French fries FF are dispensed from one or more of frywheels 404, 410, 412 and 414 onto chute 604, a suitable sensing device(not shown) senses the presence of French fries and activates wheeldrive system 976 of automated food seasoning device 616 to discharge apredetermined quantity of seasoning, such as salt, onto the French friesthat traverse chute 604.

Dispensing head 618 can be located in a desired position to applyseasoning to the food traversing chute 604. As illustrated in FIG. 3,for example, dispensing head 618 can be located towards a bottom portionof inlet chute 604 and may extend over a portion of rotatable fooddispensing member 606.

Wheel drive system 976 as illustrated in FIGS. 65-68 includes a solenoidplunger 994 for driving a linkage 996 that is connected to meteringwheel 974 to impart rotation to metering wheel 974. Linkage 996 includesa crank arm 998, one end of which is connected to a central portion ofmetering wheel 974 and the other end is connected to a lever arm 1000which, in turn, is connected to solenoid plunger 994. Lever arm 1000 canbe driven by solenoid plunger 994 which, in turn, causes crank arm 998to be driven, thereby rotating metering wheel 974 sufficiently to causecavity 990 to be directed downwardly, thereby permitting any seasoningor salt contained therein to be dispensed therefrom.

A collection funnel 1002 is disposed at the discharge end of housing 992and connects to dispensing tube 978. Dispensing tube 978 is, in turn,connected to dispensing head 618.

Dispensing head 618 can include a plurality of vanes 1004 forfacilitating dispersion of seasoning dispensed therefrom. Asillustrated, there are four vanes 1004 spaced 900 from each other.

Dispensing tube 978 has a lower end portion 1006 that terminates somedistance above dispensing cone 1008 of dispensing head 618. In oneembodiment, lower end portion 1006 of dispensing tube 978 may terminateapproximately 0.25 inches from the tip of dispersion cone 1008.

Dispersion cone 1008 includes a plurality of holes 1010 that are arrayedthrough dispersion cone 1008 to facilitate the distribution of seasoningor salt. In operation, as salt or seasoning is dispensed through lowerend portion 1006 of dispensing tube 978, the seasoning strikes the topportion of dispersion cone 1008 and is directed into four quadrants viavanes 1004. As the seasoning traverses the surface of dispersion cone1008, some of the seasoning falls through holes 1010 in dispersion cone1008. Note that not all of holes 1010 are labeled, for purposes ofclarity in the Figures. Other salt or seasoning particles do not fallthrough holes 1010 but fall off the lower end of dispersion cone 1008.Still other seasoning particles bounce or are otherwise deflected offthe top surface of dispersion cone 1008 and fall a lateral distanceremoved from dispersion cone 1008. In this manner, a good distributionof seasoning is achieved over a relatively large area.

The Control System and Method

In one embodiment, the System Master Controller of a Server (PC), arouter/hub, and a touch-screen monitor (user interface). The Master canutilize existing technology to integrate, to manage, to control, and tocoordinate information flow of and through the various subsystems foroverall system operation. The network technology is fully compliant withthe latest version of the industry's NAFEM Protocol.

Control System Features

Referring to FIGS. 69-73, the primary functions of the Control Systemare to receive order information from the POS and to connect andcoordinate all operating subsystem controllers with the MasterController so that operational commands and functional information canbe communicated and displayed. The result is that all the dispensing,fry and packaging modules function as one integrated fried foodsproduction system.

In one embodiment, the Control System is event and demand driven. Thatis, nothing happens unless a functional component or subsystem receivesa command signal to initiate the action. In a normal operation mode, thePOS will provide virtually all of the system order demands. These cantake the form of a string of two-bit Order Events. Typically this willbe a quantity and an item (for example, 2 each regular size fries). Theproduct description can consist of both the food item and its portionsize, treated as one bit of information.

The Control System information can be categorized into Order Events,Inbound Events, and Outbound Events. The Order Events come fromprimarily the POS system, the historical kitchen management system (KMS)data, or the touch-screen Monitor if a manager wants to override theautomatic ordering. KMS is a database of information of, for example,the sales rate of various products versus day and time. The Order Eventsdictate and demand the operation and performance of the automationcontrol system for production. The Inbound Events information includesmessages generated by subsystem controllers other than the POS or KMS.The Outbound Events include typical command messages issued by theMaster Controller specifying functions to be performed by individualsubsystem controllers.

In one embodiment, the Master Controller is configured to monitorperiodically or continuously the network for events to occur. Once anevent takes place and a signal is sent on the network, the MasterController identifies the source of the signal, then compares it to theprogrammed schedule of events within its memory, and reactsappropriately, either sending out a new command, showing a display,storing information in memory, or all of the above.

An important source of data for the Control System can be the KitchenManagement System (KMS). The KMS is a historical database of operationalinformation. This information can be used to set the workstationconfiguration, process settings, inventory levels, and set a level ofproduction in advance of actual customer demand orders. This interfacecan be a two-way connection, so that all operational data from the FriedFoods Workstation can be received and stored in the KMS and/or theControl System, or evaluated, adjusted, and re-entered to “fine-tune”the process on a continuing basis.

Generally, the Control System can comprise two loops, shown in FIG. 70.The primary loop is the “Order-to-Package” loop, whereby the MasterControl takes an Order Event input from the POS and directs theappropriate Packaging Module subsystem to package and deliver anappropriate portion of product. A secondary loop is the “BufferReplacement” loop, where the Master Controller receives an Inbound Eventsignal from the Packaging Module that its buffer inventory ofready-to-package fried product is low and additional product must bedispensed and fried. As currently specified, all products other thansalted French fries typically can have a default buffer inventory ofzero, meaning that an order for that (other) product will immediatelyinitiate a full dispense-fry-package (if packaged by the System)production routine.

In accordance with one aspect of this embodiment of the Control System,the Fryer Module vat operation is not directly controlled by theproduction demand cycle. Each fry vat of the fry module will operatecontinuously and on a pre-set uniform operating cycle. Frozen product isdropped into the fry module when additional inventory is called for. Theproduct is fried according to the pre-set cooking cycle and then isdumped into the Packaging (or Protein) Module receiving apron. None ofthe cooking cycle is affected by order demands, or inventory conditions.In one embodiment, the Control System can vary the time betweenincremental rotation and speed of rotation of fry wheel 410 toaccommodate for varying conditions, such as the level of cooking oil inthe fry vat. The level of cooking oil can vary as a result of the amountof product that is being fried in a particular fry vat, since productpresent in the fry vat displaces cooking oil, thereby raising the levelof cooking oil in the fry vat particularly since the product is heldbelow the cooking oil surface during a cooking cycle. Preferably, toensure the workstation reliability and system uptime, extensive controlredundancy can be provided. As a result, the control subsystems for eachFryer Module vat and each Dispensing Module chute are designed andconstructed as individual units that operate even if one or moresubsystem fails.

Additionally, the control of the Dispensing Module freezer environmentand operation can be an independent subsystem.

Preferably, the Control System includes the capability to operate allmodules individually. This allows the operator to disconnect and removea module from the network and operate the remaining modules in asemi-automatic method, manually performing some of the operations.Preferably, there are controls on each module that permit an operator tooperate that module's functions locally.

Orders for product are preferably processed sequentially as they arereceived, although the specific products within a customer order may bearranged in a logical manner as desired. The Monitor will display allproducts being processed by the workstation from the time the order isreceived until it is removed from the workstation. The status of eachproduct that is ordered can be tracked in its various stages including,for example, on order, packaged and ready to pick up, ready to manuallypackage, and held too long.

Preferably, products in the process of being fried can also be tracked,and cooking times for each basket in each wheel will count down to whenproduct is ready to package.

Master Controller

In one embodiment, the Master Controller 110 hardware may suitablycomprise, or equivalent:

-   -   Intel Pentium III (or higher) with 1.0 GHz (or higher) CPU    -   Ethernet network interface and hub    -   256 MB (or more) system RAM    -   20 GB (or more) hard disk drive    -   Touch-Screen Monitor Interface    -   Plug and Play Touch-Screen Monitor    -   SCK Gateway (Ethernet)    -   Interconnect cabling (as needed)    -   Optional Keyboard and pointing device (mouse) for installation        and maintenance purposes        Typical operating system software requirements are:    -   Windows 2000 professional (or server) SP4 or higher    -   A suitable Database Server, such as Fast SCK Version 3.0 (or        higher) from Fast, Inc. of Stratford, Conn.    -   Fast SCK Version 3.0 (or higher) Utility Applications (SCK        Editor, SCK Engine, SCK Events, and SCK Site Editor) from Fast,        Inc.        The Subsystem Interface Modules provide the functionality to        communicate specific control events (information) conditions,        and/or commands to and from the Master Controller. These modules        typically can be incorporated into the circuitry of controller        boards. In cases where the network needs to interface with a        control subsystem (such as PLCs, for example), appropriate        imbedded memory interface (input-output) circuit cards known in        the art can be utilized. All of the foregoing hardware and        software or equivalent is readily available or can be produced        by those skilled in the art.        Fryer Controller

The frying of the frozen product is controlled by a combination ofcooking oil temperature and the time the frozen product is immersed inthe cooking oil. Frying is accomplished by moving the frozen productthrough the heated cooking oil by a rotating fry wheel. As previouslydescribed, a programmable stepper or other motor can provide the desiredprecisely controlled movement of the fry wheel.

The following Table I lists typical control parameters and severaloptional parameters that can be used, if desired. TABLE I Fryer ModuleControl Signals (One set for each of 4 Product Lanes) Description InputOutput Op. Adj. Set Temperature X X Actual Temperature X “Ready” BandWidth X Temperature Offset X C. or F. X X Probe #1 X Heater Relay #1 XTotal Cook Time X X Jog Speed X Jiggle Time X Cleaner Level X Oil Fill XCleaner Fill X Probe #2 X Heater Relay #2 X Flex Time X

FIG. 71 depicts a typical motor/fry wheel/basket cycle. Virtually everyparameter can be fixed or adjustable as desired. For example, during onetypical cycle, which may be for a preset period of time that isone-quarter of the cooking time for food contained in a compartment, frywheel 410 is rotated clockwise 450 in the direction of arrow K of FIG.13. After some period of time after the 45° incremental rotation, abasket shaking simulation of back and forth rotation occurs over aperiod of about two seconds. After a 0 to 10 second delay, anotherbasket simulation shaking occurs. Thereafter, a period of time (“BasketLoad Window’) is available for loading another compartment, such ascompartment 436 with a charge of French fries or other food to be fried.Thereafter, a “no load zone” or relatively short period of time towardsthe end of the cycle is set aside just prior to another 45° fry wheel410 rotation in the direction of arrow K, which commences another cycle.During each cycle, three “home routines” can be employed, one after eachrotation of fry wheel 410 to accurately locate fry wheel 410 so that itis properly positioned with the upper end of compartment bottom 508 ofone of fry wheel 410 compartments adjacent discharge 498 and another ofthe compartments properly aligned to receive a charge of French fries orother food to be fried, such as from food dispensing device 200.

To ensure proper operation of the basket/fry wheel, includingpositioning the unit precisely for smooth loading and completeunloading, the basket/fry wheel position must be constantlysynchronized. To do this, a “homing” sensor circuit can be utilized thatresets the home position after every move of the wheel. This sensorpreferably is electromagnetic and is impervious to dirt and grease buildup and has no moving parts although any suitable sensor can be used.

Dispensing Controller

The Dispensing Module control system 114 separates functions by theproduct delivery lane they support. In one embodiment, where there arefour delivery lanes, there are four control subsystems. Each subsystemcontrols a vibrating product conveyor, a portioning load cell, and adump actuator. Additionally, there are optional module configurationsthat affect the controls design. If lanes 1, 2, and/or 3 are configuredwith bulk food hoppers, a product level sensor can be provided to alertoperators to reload frozen product before the hopper is empty. If eachof lanes 2, 3 and/or 4 are configured with an array of coil magazinesfor food items, the controls must sequentially switch power to each ofthe motors in the lane to maintain a constant flow of frozen product.

Table II lists defined control signal parameters for each of theDispensing Module Lane controllers: TABLE II Dispensing Control Signals(One set for each of 4 Product Lanes) Description Input Output Load -Small Qty. X Load - Large Qty. X Load Coil A X Load Coil B X Load Coil CX Load Coil D X Load Coil E X Ready to Dump X Vibrator Frequency X BulkFill Level X Time Out X Overweight X Clean Out XFreezer Controller

In addition to properly dispensing products into the Fryer Module, thedispensing device 200 control 114 must also maintain a proper frozenenvironment for all products. To accomplish this, another controllersubsystem can be provided. Table III lists the applicable control signalparameters for the freezer subsystem. A safety circuit interrupts alldispensing activity when the aisle door is opened. TABLE III FreezerControl Signals Description Input Output Op. Adj. Set Temperature X XActual Temperature X Aisle Door Open X

The separation of the Dispensing Module controls into these fivesubsystems when there are five makes for a convenient mechanicalarrangement in the base of the module, and allows for the requiredflexibility given the configuration options.

In one embodiment, for manual operation, four “dispense” buttons areprovided, one for each lane. One button would cause the release of apre-set portion of the frozen product for that lane. The controlspreferably should be located so the operator could by visual observationdetermine the appropriate Fryer basket to make sure the productdispenses into the proper basket.

Packaging Controller

Packaging Controller 118 for the Packaging Module incorporates severalevent signal generators for the control system to sense or read. Themain Packaging Module or device 600 elements are depicted in FIGS.25-29. In one embodiment, the Packaging Module or device control systemincludes two subsystems within the Packaging Module, the packagingsubsystem and the heated food storage device 635 that can be used inplace of packaging device 600.

The Packaging Subsystem

The packaging control subsystem initially interfaces with the PackagingModule PLC and sends packaging device 600 a signal to start thesequential operation of packaging one of an appropriately-sized portionof French fries. The actions and reactions of all the electromechanicaldevices (e.g., container handling system 610, dispensing member 606,overflow member 613, load cell 702 and chute mechanism 608) can be, ifdesired, sequenced and controlled by the local on-board controller(i.e., PLC) and not Master Controller 110.

Once the automated arm 764 sets the filled package of fries on conveyor614 and the receptacle load gate 926 opens to allow receptacle 612 tomove to the pick up area, a signal will be sent back to MasterController 110 indicating that the particular order of fries is readyfor pick up. Until that receptacle 612 moves to the return gate 928(located at the operator right front of the Packaging Module) and thegate permits receptacle 612 to move therepast after receptacle 612 isempty, Master Controller 110 will believe (and display) that the orderof fries is waiting to be picked up. Preferably, the crew member willpick up fries from right to left to ensure that the order sequence isfollowed and that the oldest fries are served first.

Because the number of receptacles 612 that can fit between gate 926 andreturn gate 928 typically is limited, Master Controller 110 intelligencepreferably keeps track of how many orders of fries are in the pick upcue. This allows audible/visual alerts to be triggered on the Monitor toremind the crew that orders have been waiting. Also, even if orders arepicked out of sequence, the Master Controller will remember what was onan empty receptacle 612 and clear it when it passes return gate 928.

Preferably, the Master Controller is configured to remember the holdtime of each packaged fry order. If the order has not been picked up intime, the Monitor will alert the operator by audible/visual signal to“waste” that order.

The Secondary Loop

The remainder of the Packaging Module or device 600 control 118functions address the secondary loop, “buffer inventory replacement.”Preferably, there are two typical system requirements for the bufferinventory: (1) there must be a minimum amount of fries in member 606 orchute mechanism 608 to completely fill the next packaging order (thatis, one portion of a given size); and (2) the buffer inventory is lowand needs to be replenished.

For the first requirement, if there is insufficient buffer inventory tofill the package, chute mechanism 608 is disabled and an error messagealarm is sent. This condition should not happen, but the controlintelligence prevents packaging device 600 from under filling an order.

During normal operations, the level of fries in the buffer inventorywill drop to a level where an inventory replenishment order will beinitiated. In that event, Master Controller 110 can signal dispensingdevice 200 to start its fill sequence. This process should typicallystart soon enough that the replacement product can be fried, salted, andadded to the dispensing member 606 before the “out-of-product” conditionis reached. The KMS data can be integrated into the Master Controlintelligence to help insure that there is replacement product in processbefore the actual need arises. This capability minimizes order deliverydelays while also preventing the dispensing member 606 inventory growingbeyond actual need.

The dispensing member 606 inventory can be managed in a number of ways,as desired. For example, any of the following can be utilized andimplemented by one of ordinary skill in the art: (a) direct sensors; (b)a load cell that constantly weighs the buffer inventory; and (c) adynamic empirical calculation.

The dynamic empirical calculation embodiment uses the Master Controllerto constantly calculate how much product has been added to dispensingmember 606, and subtract out the portion packaged, any bonus amount,waste, and a safety factor. This empirical total will then be comparedto pre-set “reload” levels. The formula may also include how muchproduct is in process. In all cases, the buffer inventory level can beadjusted during the day to reflect actual sales levels.

The controls system design for all other (i.e., non-salted French fries)products is that the same control process would be used, but that the“buffer inventory” for those products would be defaulted to zero. Thatis, an order for hash browns would immediately signal an“out-of-inventory” condition and launch an “inventory replacement”command to the dispensing device 200. Later, if the need arises,controller intelligence would allow the operator to utilize some bufferinventory for these products.

Optionally, a provision can be made for unsalted French fries. UnsaltedFrench fries would be handled like the non-French fries products. Whenan order for unsalted French fries is received, Master Controller 110will signal the Packaging Module to move diverter bar 605. The next loadof French fries coming from the Fryer Module will then be diverted to aportion of chute 604 of packaging device 600 for manual packaging. Theextra unsalted fries can be manually returned to chute 604.

An important feature of the automated system is to maintain productintegrity. One facet of that is to dispose of product that has exceededits authorized holding time. Master Controller 110 will remember wheneach load of French fries came out of fry device 400. The mechanicaldesign of packaging device 600 assures a substantially “first in-firstout” product movement. How long the “oldest” fries have been indispensing member 606 is tracked by Master Controller 110 or packagingdevice controller 118, as desired. Whenever the allowable holding timehas been reached, Master Controller 110 will signal the Packaging Modulesubsystem Controller 118 to start the buffer waste cycle (or thepackaging device Controller 118 can directly control this function). Itis possible that some French fries in the buffer will not have reachedtheir limit, but through control parameter refinement, this can beminimized. Table IV lists the control signals for one embodiment of thepackaging control subsystem: TABLE IV Packaging Control SignalsDescription Input Output Op. Adj. Package #1 X Package #2 X Package #3 XPackage #4 X Divert Fries X Produce #5 X Produce #6 X Produce #7 XProduce #8 X Produce #9 X Dump Buffer X Buffer Low X Buffer Full XReceptacle Loaded X Receptacle Empty X Time out - System 610 X Product#5 - 9 Picked XHolding Controller

The other control subsystem is that dedicated to holding product atproper temperatures. Generally, a standard temperature controller withtimer channels to manage all holding functions can be utilized, as isknown in the art.

Table V lists the various control parameters for the holding controlsubsystem for food holding device 635: TABLE V Holding Control SignalsDescription Input Output Op. Adj. Buffer Temp Set X X Buffer Temp Act XPick Up Temp Set X X Pick Up Temp Act X Apron Temp Set X X Apron TempAct X Holding Temp Set X X Holding Temp Act X Holding Time #1 Start XHolding Time #1 End X Holding Time #2 Start X Holding Time #1 End XTouch-Screen Monitor

The Touch-Screen Monitor is the primary system user interface and can beconsidered part of the Master Controller configuration. The Monitor hasfour main functions: (1) display the status of fried foods orders; (2)allow the operator to manually control the system; (3) alert theoperator to any needed manual intervention; and (4) allow the operatorto reconfigure the workstation and/or change the individual operatingparameters.

The Monitor display can be configured as desired. Preferably, the maindisplay menu is simple, uncluttered and only presents the basicinformation needed to track ongoing order status. A sample Monitordisplay layout is shown in FIG. 72.

In the illustrated embodiment, products on order would appear ashorizontal rows of the appropriate product (type and portion size) icon,reading from the left edge of the screen. All products from a single POScustomer order would appear on a single line. As additional POS ordersare entered, the screen would refresh, moving the older orders down aline. Products on order, and not yet ready for pick up would appear asgold icons.

Across the bottom of the screen would appear the same number oflocations as there are packaging device 600 receptacles 612 in the pickup zone. As packages of fries are placed on receptacles 612 and thereceptacles 612 travel within the pick up zone, the appropriate iconwill disappear from the “on order” line and reappear as a green icon inthe spot where its receptacle is. When a package is removed from areceptacle and that receptacle passes return gate 928, the display iconwill disappear from the screen.

In one embodiment, should the “hold timer” for a packaged product expirebefore it is picked up, its green icon will change color (i.e., to red)and/or flash. In another embodiment, an audible alarm can be provided aswell, indicating clearly that this product should be wasted.

Across the top of the screen is a line of control “buttons.” There canbe one for each product (again, type and portion size). The system isprogrammed so that touching the button on the screen will enter an orderfor one each of that product. There is also a screen button at the upperright corner of the screen that enables the operator to change thescreen display to the “Settings” screen.

The “Settings” screen layout is depicted in FIG. 73. From this screen,the operator may now configure all the operating settings for theproduct to be run in each product lane. The individual settings mayinclude dispensing load size(s), fry vat temperature, cooking cycletime, buffer inventory level, packaging device Module heater setting,and other settings as desired. In this embodiment, all settings for aparticular product are linked to that product. The operator can merelyscroll in each product lane and signify the product that will be run init. Master Controller 110 will then set all operating parameters forthat product. If it is necessary to check or adjust an individualcontrol setting (such as cook time), the operator can scroll through theitems in the “settings” box for that lane and product. Then, using the“up” and “down” keys, readjust the setting and press the “enter” key toreset.

If required, a secure “manager only screen” can be configured to allowsomeone to adjust and/or reset selected operating parameters. Access tothis screen and these settings would require some type of password toprevent any non-authorized store employee from changing basic systemparameters.

Operator alert messages or alarms (e.g., bulk product low—refill now:“bridging/time out”—clear lane 2; etc.) will appear as an “error messagebox” in the center of the screen, along with some type of audible alarm.

While the invention has been described with respect to certain preferredembodiments, as will be appreciated by those skilled in the art, it isto be understood that the invention is capable of numerous changes,modifications and rearrangements and such changes, modifications andrearrangements are intended to be covered by the following claims.

1. An automated modular system for dispensing, frying and packaging foodinto individual portion-sized containers comprising: an automateddispensing module contained in a first housing, capable of dispensing adesired quantity of food to be fried; an automated fry module containedin a second housing, separate from the first housing and locatedadjacent the dispensing module to receive and fry the quantity of fooddispensed from the dispensing module, and to produce and dispense aquantity of fried food; and an automated packaging module contained in athird housing, separate from the first and second housings and locatedadjacent the fry module to receive and package the fried food from thefry module into an individual portion-sized container.
 2. The automatedmodular system of claim 1 wherein the three modules are independent fromeach other and can be operated independently.
 3. The automated modularsystem of claim 2 wherein any one of the modules can be deactivated anda human operator can manually perform the function of the deactivatedmodule with manually operated equipment.
 4. The automated modular systemof claim 1 further comprising an automated seasoning device to putseasoning on the food.
 5. The automated modular system of claim 1wherein said dispensing module is capable of dispensing one or more ofFrench fries, chicken nuggets, hash browns, chicken patties and fishfilets.
 6. The automated modular system of claim 1 wherein saidautomated dispensing module comprises: a freezer; a storage containerlocated in the freezer for containing food to be dispensed; means fordispensing a predetermined quantity of food from the storage containerinto a secondary container, said means for dispensing and said secondarycontainer located in the freezer; and means for dispensing the quantityof food from the secondary container to a location outside of thefreezer.
 7. The automated modular system of claim 1 wherein said frymodule comprises: (a) a fry vat for containing and heating cooking oil;(b) at least one circular fry wheel having at least a generally circularperimeter and a plurality of compartments, each compartment having anopening towards the perimeter, the fry wheel mounted for rotationalmovement relative to the radial axis of the fry wheel, which radial axisis disposed above the normal operating level of the frying oil in thefry vat; and (c) a drive mechanism for rotating the fry wheel.
 8. Theautomated modular system of claim 7 further comprising a control systemprogrammed to cause the drive mechanism to periodically rotate the frywheel back and forth through a relatively small amount of angularrotation to simulate shaking of a fry basket.
 9. An automated system fordispensing, frying and packaging French fries into individualportion-sized containers comprising: an automated dispensing devicecontained in a first housing, capable of dispensing a desired quantityportion of French fries to be fried; an automated fry device containedin a second housing, separate from the first housing and locatedproximate the dispensing device to receive and fry the portion of Frenchfries dispensed from the dispensing device, and to produce and dispensea quantity of fried French fries; and an automated packaging devicecontained in a third housing, separate from the first and secondhousings and located proximate the fry device to receive and package thefried French fries from the fry device into an individual portion-sizedFrench fry container.
 10. The automated system of claim 9 wherein thethree devices are independent from each other and can be operatedindependently.
 11. The automated system of claim 10 wherein any one ofthe devices can be deactivated and a human operator can manually performthe function of the deactivated device with manually operated equipment.12. The automated system of claim 9 further comprising a seasoningdevice to put seasoning on the French fries.
 13. The automated system ofclaim 9 wherein said automated dispensing device comprises: a freezer; astorage container located in the freezer for containing frozen Frenchfries to be dispensed; a device for dispensing a predetermined quantityof French fries from the storage container into a secondary container,said device for dispensing and said secondary container located in thefreezer; and means for dispensing the quantity of food from thesecondary container to a location outside of the freezer.
 14. Anautomated system for dispensing, frying and storing cooked foodcomprising: an automated dispensing device contained in a first housing,capable of dispensing a desired quantity portion of food to be cooked;an automated fry device contained in a second housing, separate from thefirst housing and located proximate the dispensing device to directlyreceive and fry the portion of food dispensed from the dispensingdevice, and to produce and dispense a quantity of fried French fries;and a food receiving device contained in a third housing, separate formthe first and second housings and located proximate the fry device todirectly receive and store the cooked food received from the fry device.15. The automated system of claim 14 wherein said automated dispensingdevice comprises: a freezer; a storage container located in the freezerfor containing frozen food to be dispensed; a device for dispensing apredetermined quantity of French fries from the storage container into asecondary container, said device for dispensing and said secondarycontainer located in the freezer; and means for dispensing the quantityof food from the secondary container to a location outside of thefreezer.
 16. The automated system of claim 14 wherein said fry devicecomprises: (a) a fry vat for containing and heating cooking oil; (b) atleast one circular fry wheel having at least a generally circularperimeter and a plurality of compartments each suitable for containing aplurality of French fries, each compartment having an opening towardsthe perimeter, the fry wheel mounted for rotational movement relative tothe radial axis of the fry wheel, which radial axis is disposed abovethe normal operating level of the frying oil in the fry vat; and (c) adrive mechanism for rotating the fry wheel.
 17. The automated system ofclaim 16 further comprising a control system for causing the drivemechanism to periodically rotate the fry wheel back and forth through arelatively small amount of angular rotation to simulate shaking of aFrench fry basket.
 18. The automated device of claim 14 wherein saidfood receiving device is heated.
 19. The automated device of claim 18wherein said food receiving device comprises a heated holding binpositioned to receive food from an outlet slide located between the frymodule and the food receiving device.
 20. The automated system of claim19 wherein said holding bin comprises four heated sides and a heatedbottom.